Short UN video about food-related water usage ‘ALL YOU CAN EAT’

by John Brian Shannon

Watch the video. Click here >> ALL YOU CAN EAT

This is a one-minute United Nations video which demonstrates how much water it takes to produce the different foods that we eat every day.

Many of the world’s nations face water shortages and as climate change brings on more droughts, less rainfall will result in the lowering of underground water tables and crop failures will become more common. In the United States, 2012 was a drought year (again) and billions of dollars of crops died while still in the ground. It was a record year for crop failure insurance payouts in the U.S.A.

How can you help? Watch and share the video — and eat less meat. For myself, I decided long ago to eat meat only five days per week, instead of the usual seven. If large numbers of people in the developed nations would do this, it would have a measurable effect on the  developed world’s water consumption and we would all feel a lot healthier!

Bonus video. Click here >> WATER 101 Water for Food

This two-minute video shows some interesting statistics around water usage vs. population growth.


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How to Buy a Car and get Free Fuel

by John Brian Shannon

What if you could buy a car and (except for the normal taxes, insurance, maintenance and parking stall fees, etc.) you could drive it around for free? What I’m talking about is fuel, which for most people is a major cost these days.

Steve: In Los Angeles, the gas price is hovering around $4.00 per gallon. At that price, ‘Steve’ uses about $21.00 of gas (5.3 gallons) to travel 96 miles every weekday. He is likely to spend $106. per week in mixed driving, totalling about $425. per month.

The question is; What would ‘Steve’ rather do with $5100. per year?

If you want an easy way to calculate vehicle fuel costs, miles per dollar (MPD) works as good as anything – and for this hypothetical SUV it costs about $0.22 per mile to drive in mixed traffic. (Maintenance, taxes, registration, parking, etc.… not included in these figures.)

Suzy: HerHybrid Prius also does a lot of stop and go city driving. Her EPA sticker says she should get 48 MPG city driving and 45 MPG highway driving. At $4.00 per gallon for gas, she uses $8.00 of gas (2 gallons) to travel 96 miles. Her cost per mile? Suzy’s Prius costs about $0.08 per mile to drive in mixed traffic. (Maintenance, taxes, registration, parking, etc.… not included in these figures.)

Ken: He drives a Nissan LEAF, which doesn’t even have a gas tank — because it is an electric vehicle, but the EPA sticker on the car when it was new advertised an equivalent of 95 MPG, which is expressed as 95 MPG-e.

Scenario A) If Ken charges his car’s battery pack at home, he pays for the electricity to charge it resulting in an electricity cost of $0.04 per mile. Depending on how Ken drives and his electricity rate, each $1.00 of stored electricity could get him up to 25 miles.

Scenario B) If Ken uses the many available and free fast-chargers placed around the city to recharge his EV battery pack, he doesn’t pay anything per mile — as most 30 minute fast-chargers for electric vehicles are free to use in the U.S.A. In which case, his cost is $0.00 per mile. Buy the car, drive it for free! (Maintenance, taxes, registration, parking, etc.… not included in these figures.)

It may interest you to know that there are over 11,500 EV chargers in the U.S.A. as of Jan 2013, with more are being added every month. They are easily located via smartphone app and are conveniently located in almost every U.S. city.

Now, what to do with that extra $5100. each and every year?

These numbers are hypothetical examples, your costs and/or savings will be determined by your city’s gas prices and your vehicle mileage. Your electricity rate only matters if you choose to charge your EV at home — instead of at a 30 minute fast-charging station, where you can fully charge it for free!

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Wind Power: Healthy and Growing!

Wind Power: Healthy and Growing! | 04/02/13
by John Brian Shannon John Brian Shannon

Global wind power growing at an exponential rate

For example, China has now installed more wind turbines than any other country. China began 2011 with 41.5 gigawatts of installed wind power capacity and is adding more wind turbines to their grid almost daily.

And by 2015 (one year ahead of schedule) China’s citizens will enjoy 100 gigawatts of clean, wind powered electricity. Wind power surpassed nuclear energy in 2012, to become China’s 3rd largest source of electrical power.

By 2020, they plan to have 200 gigawatts of wind power, which will displace many billions of tons of airborne emissions from coal-fired power plants.


The United States is second with 47 gigawatts of wind power capacity (at the end of 2011) and must add 305 gigawatts of wind power by 2030 to reach the goals set out in the U.S. Department of Energy 2008 report 20% Wind Energy by 2030 (downloadable PDF) which predicted that wind power could meet 20% of all U.S. electricity demand by 2020.

The use of wind power in the United States has expanded quickly over the last several years. Construction of new wind power generation capacity in the fourth quarter of 2012 totaled 8,380 megawatts (MW) bringing the cumulative installed capacity to 60,007 MW.[1]

This capacity is exceeded only by China.[2] For the 12 months from November 2011 to October 2012, the electricity produced from wind power in the United States amounted to 137 terawatt-hours, or 3.4% of all generated electrical energy.[3]

The United States produced enough electricity from wind in the 12 months [prior to] November 2012 to power over 11 million US households annually[4] or meet the total energy demands of Poland.

The U.S. wind industry generates tens of thousands of jobs and billions of dollars of economic activity.[9]

Wind projects boost local tax bases, and revitalize the economy of rural communities by providing a steady income-stream to farmers with wind turbines on their land. – Wikipedia


Wind energy has grown exponentially in the last decade, with an average increase of 29.7%/year. At an exponential growth of 29.7%, the U.S. would obtain 20% from wind by 2020. — Image courtesy of Wikipedia

If you think that only large countries can use the wind to create clean and fuel-free electrical energy, read: Denmark Sets Goal of 100% Renewable Energy by 2050. Denmark has proven to the world that when citizens back government efforts towards sustainable energy — the transition to 100% green energy is possible. The Danes are making it look easy.

It is time to harness that wind and produce clean electricity from it, create jobs and make profit by it, while enjoying the benefits of clean air as more wind farms displace fossil-fuel power plants!

The following information is courtesy of Wikipedia, click to read here:

Complementary power

Solar power tends to be complementary to wind. On daily to weekly timescales, high pressure areas tend to bring clear skies and low surface winds, whereas low pressure areas tend to be windier and cloudier. On seasonal timescales, solar energy peaks in summer, whereas in many areas wind energy is lower in summer and higher in winter.[nb 3][95]

Thus the intermittencies of wind and solar power tend to cancel each other somewhat.

In 2007 the Institute for Solar Energy Supply Technology of the University of Kassel pilot-tested a combined power plant linking solar, wind, biogas and hydrostorage to provide load-following power around the clock and throughout the year, entirely from renewable sources.[96] 

Pumped-storage hydroelectricity or other forms of grid energy storage can store energy developed by high-wind periods and release it when needed.[103]

Cost trends

Wind power has low ongoing costs, but a moderate capital cost. The marginal cost of wind energy once a plant is constructed is usually less than 1-cent per kW·h.[113] This cost has reduced as wind turbine technology improved.

The National Renewable Energy Laboratory projects that the levelized cost of wind power in the U.S. will decline about 25% from 2012 to 2030.[112]