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Rabu, 04 Mei 2016


 

The Department of Energy (DOE) has announced up to $15 million available to demonstrate biomass-based oil supplements that can be blended with petroleum, helping the United States to reduce foreign oil use, diversify the nation’s energy portfolio, and create jobs for American workers. 

Known as “bio-oils,” these precursors for fully renewable transportation fuels could be integrated into the oil refining processes that make conventional gasoline, diesel, and jet fuels without requiring modifications to existing fuel distribution networks or engines.
The Department expects to fully fund between five to ten projects in fiscal year 2012 to produce bio-oil prototypes that can be tested in oil refineries and used to develop comprehensive technical and economic analyses of how bio-oils could work. The proto-type bio-oils will be produced from a range of feedstocks that could include algae, corn and wheat stovers, dedicated energy crops or wood residues.
 Domestic industry, universities, and laboratories are all eligible to apply.
The results of the projects will inform future efforts directed at advancing bio-oil technologies and bringing these renewable fuels to market. A description of the funding opportunity, eligibility requirements, and application instructions can be found on the Funding Opportunity Exchange website under Reference Number DE-FOA-0000686.

The Energy Department’s Office of Energy Efficiency and Renewable Energy (EERE) accelerates development and facilitates deployment of energy efficiency and renewable energy technologies and market-based solutions that strengthen U.S. energy security, environmental quality, and economic vitality. Learn more about EERE’s work with industry, academia, and National Laboratory partners on a balanced portfolio of research in biomass feedstocks and conversion technologies.

CCRES ALGAE 
project of 
CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)
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Minggu, 01 Mei 2016



Last month U.S. Army Energy Initiatives Task Force (AEITF) issued a draft request for proposals (Draft RFP) renewable energy contracts.

What’s on offer? Over the next decade, an impressive $7 billion. During the AEITF’s pre-solicitation phase, the Draft RFP is designed to gather information from potential bidders to assist the AEITF to develop a formal Request for Proposal (RFP) that it intends to issue later this year.

The United States Armed Forces, which currently fuels 77 percent of its machinery with petroleum-based fuel, has announced an aggressive goal, to be petroleum free by 2040. The Air Force intends to use biofuels for 50 percent of its domestic aviation needs by 2016.
A 2011 Pew Charitable Trusts report, “From Barracks to the Battlefield: Clean Energy Innovation and America’s Armed Forces” reported that Department of Defense clean energy investments increased 300 percent between 2006 and 2009 – from $400 million to $1.2 billion – and are projected at $10 billion annually by 2030, adding that that by 2015, the Pentagon will be spending $2.25 billion each year to harness clean energy technologies for air, land and sea vehicles.
Driving the Pentagon’s green drive is Executive Order 13423, which mandates that the Department of Defense achieve a 30 percent reduction in non-tactical fleet fossil fuel use by 2020.
A second key piece of legislation driving the Pentagon’s mandate is the Renewable Fuel Standard, which Congress enacted in 2005 as part of the Energy Policy Act, amending it in the 2007 Energy Independence and Security Act. The amended standard mandated that by 2022 the consumption volume of the renewable fuels should consist of: 15 billion gallons of conventional biofuels, mainly corn-grain ethanol; 1 billion gallons of biomass-based diesel fuel; 4 billion gallons of advanced renewable biofuels, other than ethanol derived from cornstarch, that achieve a life-cycle greenhouse gas threshold of at least 50 percent; and 16 billion gallons of cellulosic biofuels produced from wood, grasses, or non-edible plant parts, such as corn stalks and wheat straw.
The draft AEITF RFP marks the beginning of the AEITF’s plan to develop a large, coordinated procurement process for renewables. The AEITF’s new program was developed in response to a National Defense Authorization Act that requires Department of Defense facilities to derive at least 25 percent of the electricity they consume from renewable energy by 2025, and a Department of Defense “Net Zero Energy” initiative, which challenges DOD installations to produce more energy than they consume, with emphasis on the use of renewable energy and alternative fuels.
So, what is holding back the production of commercially viable amounts of biofuels? Key barriers to achieving the renewable fuel mandate are the high cost of producing biofuels compared with petroleum-based fuels uncertainties in future biofuel markets, a lack of subsidies and crop insurance, along with a shortage of significant investment.
These factors have combined to produce a “perfect storm” up to now for biofuel producers, resulting in “designer fuels” of high cost for Pentagon testing.
To give but one example.
In October 2010 the Navy purchased 20,055 gallons of algae biofuel at an eye-watering cost of $424/gallon.  Nevertheless, the contract was one of the biggest U.S. purchases of a non-corn ethanol biofuel up to that time. A year later, the Navy reportedly spent $12 million for 450,000 gallons of biofuel. The bad news was that the biofuel’s cost worked out to around $26.67 per gallon, roughly six times the current cost of traditional gas.
The good news?  In a single year, the cost per gallon of biofuel plummeted by a factor of 15.9.
Furthermore, $7 billion in funding is likely to prove a significant game changer in the field.
So, where does this leave the investor? No single biofuel source, from jatropha, algae or camelina has yet to emerge as the clear winner, though the last seems most likely to emerge as the frontrunner. Accordingly, investors must do their homework and seek out potential winners.
For those wishing to broaden their portfolios, two websites will prove of immense value.
The first is www.usa.gov, the federal government’s website for the U.S. government, where one can come to grips with federal legislation and Pentagon initiatives.
The second is Jim Lane’s http://www.biofuelsdigest.com/, the self-proclaimed “world’s most widely read biofuels daily.” While the site has an element of tub-thumping boosterism, it nevertheless remains an immensely valuable source of information about the biofuel market and the major players.
It is important to remember how different the biofuels picture is now from even a year ago. The Pentagon, the largest U.S. consumer of fuel, is now under pressure to meet the various federal mandates, and careers and promotions hang in the balance.
 CCRES special thanks to 
John C.K. Daly ,
U.S.-Central Asia Biofuels Ltd
Croatian Center of Renewable Energy Sources (CCRES)
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Senin, 25 April 2016


  • The Green LoopThe Green Loop
  • Know Your SeaweedsKnow Your Seaweeds
  • Young Algae ResearcherYoung Algae Researcher
  • BFS Algae, in SpainBFS Algae, in Spain
  • Algae Research at MSUAlgae Research at MSU
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Kamis, 21 April 2016


 
  
HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE
predstavlja Vam 

 Projekt
CCRES AQUAPONICS




Više informacija o Projektu CCRES AQUAPONICS na :
http://ccresaquaponics.yolasite.com/

 All the food CCRES produced during the year is given to poor families.

Za sve dodatne informacije slobodno nas kontaktirajte.
HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE (HCOIE)
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Senin, 11 April 2016


CCRES promotes Nor Cal Biodiesel
Nor Cal Biodiesel currently offer two models to choose from: the BioPro190 and the larger BioPro380.
BioPro190

BioPro190 General Information and Specifications
  • Dimensions: 21"w x 21"d x 67"h. Overall height adjustable +/- 2”
  • Weight: 325 Lbs. (empty).
  • Capacity: 50 gallons oil yields 50 gallons of finished fuel.
                   10 gallons methanol - yields approx. 10 gallons glycerin.
  • Construction: TIG welded 304 stainless steel body; Powder coated carbon steel covers.
  • Fittings: 304 stainless steel or glass filled polypropylene.
  • Electrical: 110 VAC / 15 Amp Circuit.
  • Controls: AUTO mode controlled by program logic controller;
                   Start button initiates completely automated process;
                   MANUAL mode controlled by switch actuation.
  • Reaction Method: Acid-catalyzed esterification of free fatty acids
                   Then base-catalyzed transesterification of triglycerides;
  • Wash Method: Triple-stage turbulent water wash.
                   1) Mist Spray, 2) Mist & Agitation, 3) Mist & Agitation
  • Batch Time: Reaction Time – approximately 8 hrs;
                   Initial settling - 16 hrs;
                   Water wash – approximately 14 hrs;
                   Drying cycle - Approx 10 hrs:
  • Total Processing Time: Approx. 48 hours start to finish.
Items You Will Need To Get Started:
  • 50 Gallons of new or used filtered vegetable oil or oil derived from animal fats
  • 400 micron, or finer, filter to strain the oil
  • 10 Gallons of methanol (racing fuel)
  • For your safety and convenience, we suggest obtaining a methanol compatible and an oil/grease
    compatible transfer pump
  • 1520 grams (3.41 lbs) Sodium Hydroxide - NaOH or 2350 (5.17 lbs) grams Potassium Hydroxide - KOH
  • 190 mL (6.43 oz) Sulfuric Acid (93% Purity or higher) - Do not use common battery acid
  • 50 Gallons of fresh, standing water
  • 50 Gallon container or receptacle for “water in”
  • 50 Gallon container or receptacle to collect the wash water – or connect directly to a drain.
  • Air tight storage containers for methanol (typically, a 55-gallon drum), catalyst potash, and sulfuric acid
  • Protective gloves, face mask, apron, and safety goggles (included)
  • Transfer hoses, scales, and measuring cups (included)
  • (1) 110-120 volt / 15 amp & (1) 220 volt / 30 amp AC power source 
  BioPro380
BioPro380 General Information and Specifications
  • Dimensions: 64"w x 34"d x 91"h. Overall height adjustable +/- 2”
  • Weight: Approximately 675 Lbs. (empty).
  • Capacity: 100 gallons oil yields up to 100 gallons (380 liters) of finished fuel
  • Batch Sizes: - Capable of processing 50, 75, or 100 gallons of oil feedstock (190, 284, or 380 liters).
  • Construction: TIG welded 304 stainless steel body; Powder coated carbon steel covers.
  • Electrical: 220 VAC / 30 AMP & 110 VAC / 15 Amp Circuit. Dedicated Circuits are preferred but not required.
  • Controls: AUTO mode controlled by program logic controller;
                   Start button initiates the automated process;
                   MANUAL mode controlled by switch actuation.
  • Reaction Method: Acid-catalyzed esterification of free fatty acids
                   Then base-catalyzed transesterification of triglycerides;
  • Method: Triple-stage turbulent water wash.
                   1) Mist Spray, 2) Mist & Agitation, 3) Mist & Agitation
  • Batch Time: Reaction Time – approximately 8 hrs;
                   Initial settling - 16 hrs;
                   Water wash –(total three (3) cycles, approximately14 hrs;
                   Drying cycle - Approx 10 hrs:
  • Total Processing Time: Approx. 48 hours start to finish.
Items You Will Need To Get Started:
  • 100 Gallons of new or used filtered vegetable oil or oil derived from animal fats (triglycerides
  • Minimum 400 micron, or finer, filter to strain the oil
  • 20 Gallons of methanol (racing fuel; 99.99% pure)
  • 3040 grams Lye (Sodium Hydroxide - NaOH) or 4700 grams Caustic Potash (Potassium Hydroxide - KOH)* *Recommended
  • 380 mL Sulfuric Acid (93% Purity or higher) - Not common battery acid
  • 100 Gallons of fresh standing water (can also be connected directly to a pressurized water line)
  • 100 Gallon container for water in (or connect to a clean, pressurized water source)
  • 100 Gallon container for water out (or connect directly to a drain)
  • Air tight storage containers for methanol, lye/caustic potash, and sulfuric acid
  • Protective gloves, face mask, apron, and safety goggles (included)
  • Transfer hoses, scales, and measuring cups (included)
  • For your safety and convenience, we suggest obtaining a methanol transfer and oil/grease transfer pump
  • (1) 110-120 volt / 15 amp & (1) 220 volt / 30 amp AC power source 
 Since its introduction, the BioPro line of products have steadily found their way into the hands of many an independent souls.
 Click on the links below to read about
  World renowned Dr. Andrew Weil with his BioPro190 
CONTACT Nor Cal Biodiesel
Please feel free to contact  Nor Cal Biodiesel for additional information regarding our products or services.
 
 Nor Cal Biodiesel also welcome any comments or suggestions regarding  products, web site and overall experience regarding your initial interaction with Nor Cal Biodiesel.
General Inquiries and Sales Information info@norcalbio.com
Projects, Business Development or Specific Requests danny@norcalbio.com
Nor Cal Biodiese web site : http://norcalbio.com/index.html
For any additional information, please contact 
Danny Lesa, telephone 707-766-9782 
CROATIAN CENTER of RENEWABLE ENERGY SOURCES
 (CCRES)
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Jumat, 08 April 2016



Israeli scientists grow microalgae strains from the Red Sea in bioreactor fields in the desert near Jordan, for astaxanthin used to create cosmetics, colorants and food supplements…


CCRES AQUAPONICS
Project of NGO
Croatian Center of Renewable Energy Sources (CCRES)
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Kamis, 07 April 2016


CROATIAN CENTER of RENEWABLE ENERGY SOURCES 
(CCRES)
 Sources of Alternative Energy

 
Alternative energy or renewable energy is important for creating clean energy future not only for the individual nations but the whole world. It offers excellent alternatives to the fossil fuels to reduce the emissions of carbon dioxide and greenhouse gases. The sources of the alternative energy are inexhaustible and one can rely on them for long-term basis Here are some important sources of alternative energy:
 
1) Solar energy:

The energy obtained from the radiations of the sun is called as solar energy. Sun is the massive source of energy releasing radiations since billions of years non-stop. The radiations emitted by sun are vital for all the plant, animal and human lives on the earth. At present solar energy is being tapped successfully for a number of applications.

Solar cooker is small box type equipment used for cooking of the food without requiring any additional fuel. There are number of variations of solar cooker with different efficiencies and different sizes. Solar water heaters are used extensively for heating water that can be used for bathing, domestic use and industrial purposes. It saves lots of electricity costs and the burning of other fuels like wood, coal, LPG etc. Another very important application of the solar energy is the photovoltaic or PV cells. The PV cells comprise of the solar panels that absorb solar energy and store them in the batteries. The energy from the batteries can be used for different domestic as well industrial applications

Besides these, there are number of other applications of solar energy like solar street lights, solar lanterns, calculators, mobiles etc. Solar energy is available abundantly in countries like India, China, US and others. It is considered to be one of the most resourceful sources of energy for future.

2) Wind energy:

The energy obtained from naturally flowing wind in the atmosphere is called as wind energy. Wind energy is available extensively in specific geographical locations without any costs. The wind in motion carries kinetic energy and it can be converted into mechanical and electrical energy. Presently wind energy is widely used for the generation of electricity.

To tap the energy from wind turbines are used. The wind turbine comprises of large blades looking like the fan. The blades are attached to the hub, which in turn is mounted on a shaft When the moving wind comes in contact with the blades it causes the rotation of the blades, which in turn causes the rotation of the shaft at low speeds. This shaft is connected to the gear box and causes slow rotation of the input gears and fast rotation of output gears and shaft. The output shaft rotates in an alternator that produces electricity. To get sufficient amount of grid power, large number of wind turbines are required at a specific location, which is called as wind farm or wind power plant.

3) Hydropower:

The power obtained from the flow of water is called as hydraulic power or hydro power or water power. The alternative energy from water can be obtained in a number of ways, the most popular being the hydroelectric power plants. In these power plants huge dams are built across the flow of the river. The water is stored in the dam at large heights and it carries potential energy. When the water flows down the potential energy is converted into kinetic energy. The flowing water comes in contacts with the large water turbines and makes them rotate in the transformer that produces electricity. Hydroelectric power plants are important source of electricity in a number of countries including US, China, India, Russia, and others.

Alternative energy obtained from the tides of the oceans is called as tidal energy. The waves in the waters of the oceans can also be utilized to produce electricity.

4) Geothermal Energy:

The heat energy obtained from the deep layers of earth is called as geothermal energy. The heat is produced continuously in the deep layers of earth, which can be utilized for various purposes like heating water, operating the heat pumps, producing electricity etc. Large amount of heat is generated in the core of earth and it gets conducted through the surrounding layers of rock. It comes to the surface of the earth in various forms like lava, hot springs etc, while other heat is stored below the surface of the earth. This heat is the geothermal energy and is available in unlimited quantity.

5) Biomass energy:

Biomass is the organic material obtained from the plants. The plants absorb energy from the sun by the process of photosynthesis so the energy is store in them. The biomass is the garbage leftover by the plants in the form of fallen leaves, broken branches, dead trees, wood chips, wasted crops etc. A number of other garbage and waste materials can be considered to be biomass. The energy obtained from the biomass is called as the biomass energy.

When the biomass is heated, the chemical energy within it is converted into heat energy, which can be used for heating water, producing steam, cooking food etc. Biomass can also be used to produce the methane gas, which can be used as the fuel. Rotten garbage and human waste can also be considered as biomass that can be used to produce methane, which is called as landfill gas or biogas. Biomass can also be converted biodiesel, which can be mixed with the traditional diesel fuel to run the vehicles.
CCRES 
special thanks to   
Escapeartist, Inc
 CROATIAN CENTER of RENEWABLE ENERGY SOURCES 
(CCRES)
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Minggu, 03 April 2016

Believe it or not, your life depends on algae!

Join Scripps Institutions Russell Chapman as he discusses the important roles algae have played in the development of life as we know it.


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Sabtu, 02 April 2016




All the food CCRES produced during the year is given to poor families.

  • Measure the length and width of the aquarium with the measuring tape.
  • Cut the plywood with the saw to the dimensions of the aquarium you measured in Step 1.






  • Cut four beams the same length and width of the plywood you cut in Step 2.
  • Drill holes into two beams and screw them together at a 90-degree angle. Lay the other two beams across the aquaponics grow bed.
  • Cut legs for the aquaponics grow bed frame. Place the frame where you will use it and measure and cut the legs to the length you need, keeping in mind the need to make them longer if there is a slope.
  • Drill holes into the legs. Keep them flush with the edge of the frame and screw them into place securely. Place the frame onto the plywood you cut in Step 2.  

     
  • Place the grow bed right next to the aquarium or pond. Line the grow bed with pond foil the same length and width of the grow bed. Pour gravel on top of the pond foil in the grow bed. Cut a hole through the center of the grow bed and pond foil with the saw.
  • Place the water pump in the fish tank or pond and connect the water-in pipe to the pump.
     Pull the water-in pipe through the hole in the grow bed. Install the overflow drain into the grow bed and set it to a few inches above the height of the grow bed to prevent water from overflowing.
  • Fill the aquarium or pond with water and place plants into the gravel of the grow bed.
  •  
    CCRES AQUAPONICS special thanks to Zeljko Serdar for presentation of “How-To” module.

    Read More..

    Rabu, 30 Maret 2016

     
    Aaron Baum at work. All photos courtesy of The Algae Lab

     by Alice C. Chen 

    Microscopic spinning orbs and spirals of green goo are the answers to our planets energy crisis and arable land shortage. At least thats what Aaron Baum, a 40-year-old Harvard graduate and Stanford PhD, has concluded.
    And Baum should know. After a mid-life crisis of sorts, he spent months researching the types of science that would most benefit the world and concluded that algae are it. Now, he wants to share his passion with the public by creating communities of people with their own algae farms. Imagine that – you can have a personal algae tank that provides fresh, ultra-nutritious food on a year-round basis.
    Baum is a research consultant for NASAs OMEGA project, whose mission is to create massive amounts of algae for biofuel, fertilizer and food. The San Rafael, California algae-phile knows not everyone has access to professional grade equipment – which can cost tens of thousands of dollars – so Baum has started teaching seminars on how to raise spirulina inexpensively and in ones own home. The day-long workshops cost $150 and hell also provide you with a kit that includes a tank, spirulina starter stock, a nutrient mix and other equipment for $200. Through these workshops, Baum hopes to continue forming a collaborative community that shares knowledge about algae farming.

    The seminars grew out of Baums first venture in algae. In 2008, he created what he says was the worlds first communal algae farm. The project was based in Berkeley and consisted of more than a dozen 55-gallon tanks of algae. It eventually got so massive that it wouldve required full-time staff, so Baum closed it down when he traveled around the world last year to attend algae workshops and visit algae farms. When he returned, he thought it would be more manageable to have the farms in peoples homes. I talked with him about his adventures in algae, and his plans for the future
    IMG_2802
    IMG_2802
    Alice Chen: How did you get interested in algae?
    Aaron Baum: As a scientist, Im completely committed to doing good things for the environment. I earned my Phd in applied physics from Stanford in 1997 and worked for several years in Silicon Valley as a program manager on technologies I developed in graduate school. I realized I was working my butt off to make computer chips run faster. I kind of lost faith in what I was doing.
    I dropped out of that field, worked as an artist for several years and realized I miss science -- the intellectual challenge and making contributions and changing peoples lives. I decided to get back into science on my own terms.
    I thought about it for a long time and decided I wanted to work in a field where I could be sure I was doing something good for the world. I started doing a lot of research four years ago and after a few months, algae started to stick up out above everything else. Back then if you searched for algae, what came up was how to kill algae and how bad it was because of algae blooms. That was happening for a while but now its exponentially worse. I started working in that area. Now if you search for algae (online), about half of what you find is good.
    AC: Whats so great about algae?
    AB: Algae is a way to grow really high quality food in a small area, on the surface of a body of water or in wastewater. Or you can grow algae in dilute urine which is an easy way to get the right nutrients and reduce your impact on the environment.
    Most marine biologists consider that the number one danger to marine life is eutrophication, an excess of nutrients in the water from agricultural runoff due to application fertilizer. When it hits the ocean or lake, there are massive algae blooms. When they decay, they wipe out oxygen and everything dies.
    If you can find a way to keep nutrients out of water, you reduce the size of dead zones. You can create controlled algae blooms, harvest algae and eliminate nutrients that way. Or you can take wastewater, give it to algae directly and absorb nutrients. You come out with clean water, fuel, food, fertilizer and extra oxygen. And on a small scale in your own house if you grow it in dilute urine, you reduce the fertilizer load on the local ecosystem.
    IMG_5964
    IMG_5964
    AC: Tell me about algae as food. Why are people so into it?
    AB: The idea was first proposed in the 1930s in Germany. They were trying to develop it for growing food. You can grow a lot of food in a small area. Its extremely nutritious on a gram-for-gram basis. You can mix it in with other food. It didnt take off until spirulina in the 1970s. Now theres chlorella.
    Normally you get spirulina in a powder or pill form. Its grown in large outdoor ponds normally, and you sieve it out of water. Its kind of special. It grows in corkscrew filaments making it relatively easy to strain out of water using a special fabric. Most other kinds of algae are too small and roundish, very difficult to filter.
    Algae as a food is extremely healthy. Its high in complete protein, antioxidants, omega-3 fatty acids, and its effective against infections. It has defenses against viruses and you can acquire defenses as well. Its good to protect against environmental toxins. There were dozens of experiments where they fed rats a regular diet and another group with spirulina. They exposed them to mercury, lead, pesticides, radiation and mutagens and found that spirulina-eating rats do much better.
    In powder form, spirulinas great, but when you want to eat a blueberry, you dont want it powdered. You want it fresh. You can eat fresh spirulina thats basically alive. It tastes better.
    AC: What does it taste like?
    AB: The problem with most algae is it tastes like seaweed. A lot of people are not turned on by that taste. I think its really good in certain dishes. When you eat it live, fresh, the taste is much lighter, creamy, and buttery. You can spread it on crackers. We mix it with brown rice and guacamole so its vegan. The easiest way is in carrot juice.
    IMG_0198
    IMG_0198
    AC: Is anyone else doing what youre doing?
    AB: Were at the very beginning of growing it. A few people have worked on it. Some people in France grow spirulina on a small scale in their house. Outside of France, theres been very little work. Im not aware of anyone in the U.S. working on it other than us.
    AC: Why havent more people already started growing algae in their homes?
    AB: There are technical barriers. You need to grow live spirulina. You need a seed reactor, a nutrient mix to put in the water and a special cloth. You must maintain proper balance between acidity and alkalinity, and the proper temperature. What Im doing is putting together a kit to provide live spirulina.
    AC: How is this a communal project?
    AB: Im starting out by building the community and showing people how they can do it themselves. Well do it together and share information through our website.
    Previously we built a whole algae lab all based on volunteer labor. We built it for about 1,000 times less money than what we spend in places like NASA. What were aiming to do is cultivate algae based on free material. We grow algae and are investigating it as fertilizer, biofuel, and growing it in dilute urine.
    Wed like to create an international network of people growing all kinds of algae in their homes in a small community scale, sharing information, doing it all in an open source way. Wed be like the linux of algae – do-it-yourself with low-cost materials and shared information.
    I get emails from all over world. Theres been a huge wave of interest in algae, driven by biofuels and by the growing awareness of the lack of farmland. If you want to make new farmland, you have to destroy ecosystems. The biggest impact humans have on the world is through agriculture. If we want to grow more food so people can eat better, we either destroy the last remaining ecosystems on the planet or find a new way to do things.

    AC: Whats the market like for spirulina?
    AB: The world consumes about 100,000 tons of spirulina a year. Its used for animal feed and its a nutraceutical (that is, a food that provides health benefits). Its kind of expensive, usually about $80 per pound for powder. Its a very nutrient dense food. When I eat spirulina – I eat vegan – I dont have cravings for meat or sugar. Food is more satisfying when it has spirulina. I eat a lot, 15 grams a day. Most people would consider 5 grams a day to be fairly high. If youre eating 10 grams a day, youre spending about $200 a year on it.
    AC: How did you transition into algae as a career?
    AB: I got interested in algae and decided to create an algae farm project at Burning Man in 2007. I got together a community of people and we created an installation on a trailer. We had 16 bioreactors with live algae that was eating the exhaust of a generator. They grew great – it was very successful. We had a lot of educational material. There were big posters jammed full of text explaining what we were doing and why it was interesting.
    Ive worked at the Exploratorium. Theyll tell you that anything beyond one to two sentences, theres no way youre going to get anyone in the public to read anything more than that. On the night of the Burn, the craziest night of all with partying and dancing, I went to the installation. We had forgotten to turn the lights on. In the dark, I was surrounded by people all using headlamps, leaning close and reading every single word wed written. As soon as they knew I was part of it, they started peppering me with questions. A guy from NASA was inspired by this project and then joined the OMEGA project. And then he gave me a call.
    LabBench
    LabBench
    AC: What are you doing for NASA?
    AB: Were developing large-scale systems that are combining biofuel and fertilizer production with wastewater treatment and production of fresh air and fresh water. Were using large membrane enclosures floating in bodies of water. Its a low-energy, low-resource way of growing algae.
    One budding thing of NASA technology – were working on a clever way of removing algae from water.
    Were focused on the biofuel aspect at NASA. For biofuel, you want a species that produces a lot of oil. Many species of algae can produce huge amounts of oil -- they can be more than 50 percent oil by weight, compared to normal plants that only produce a few percent.
    Algae can produce about 100 times more than typical oil plants like soybeans, on a per acre basis. You can grow enough algae to replace all of the fossil fuel in an area thats small enough to be manageable. You dont need to use farmland, theres not much remaining in the world ready to be used, and you dont need fresh water. The nice thing about algae is while they cleans water and air, they can produce very valuable things like fuel, fertilizer and food. Theyre precursers for bioplastics, cosmetics and medicines.
    Its a new kind of farming, potentially very low impact and sustainable.
    img606
    img606
    AC: So whats your vision -- to see every household have algae?
    AB: I dont see why not. It should be easier than a vegetable plot. Algae is such a super food. Its so productive on a daily basis that with one tank in a window you can significantly supplement the diet of one person. If you use a whole window, you could probably do two to three tanks year round and have even more. Every day you could be eating algae.
    Algae is an incredible resource we havent tapped into. Human beings havent gone there yet because its microscopic. I didnt know what algae were until quite a bit later in life. They dont really teach you about it in school. It produces approximately 70 percent of the oxygen we breathe. Its the basis of 95 percent of life thats in oceans.
    Even people with no dirt can grow fresh food for themselves. If youre in an apartment complex on the 25th floor, you can still grow fresh food.
     
    Croatian Center of Renewable Energy Sources
     special thanks to 
    Alice C. Chen 
     
    Alice C. Chen developed her storytelling skills while exploring the Amazon Rainforest as an undergraduate at Stanford University. She went on to earn her masters degree from Northwestern Universitys Medill and is now an award-winning journalist.
    Alice has nearly a decade of experience across media and has produced stories for the web, print, TV and radio. Her pieces have appeared everywhere from the San Francisco Chronicle to BNET and Newsweek.com. Alices specialties include business and health care reporting, and shes also interested in narrative writing, profiles and inspirational stories.
    Previous to Alices freelancing career, she was an education reporter at the Milwaukee Journal Sentinel, one of the largest daily newspapers in the country. Alice resides in the San Francisco Bay Area.

    More info about AlgaeLab on
     http://www.algaelab.org/

    CCRES SPIRULINA 
    project of 
    Croatian Center of Renewable Energy Sources
    (CCRES)

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    Sabtu, 26 Maret 2016




    Indirect land-use change (ILUC) means that if you take a field of grain and switch the crop to biofuel, somebody somewhere will go hungry unless those missing tonnes of grain are grown elsewhere.
    Economics often dictates that the crops to make up the shortfall come from tropical zones, and so encourage farmers to carve out new land from forests.
    Burning forests to clear that land can pump vast quantities of climate-warming emissions into the atmosphere, enough in
    theory to cancel out any of the benefits that biofuels were meant to bring.
    The European Commission has run 15 studies on different biofuel crops, which on average conclude that over the next decade Europes biofuels policies might have an indirect impact equal to 4.5 million hectares of land – an area the size of Denmark.
    Some in the biofuels industry argue that the Commissions science is flawed and that the issue could be tackled by a major overhaul of agricultural strategy to improve productivity or by pressing abandoned farmland back into action. Waste products from biofuels production can also be fed to animals, they say, so reducing the pressure on land resources.
    Conventional biofuels like biodiesel increase carbon dioxide emissions and are too expensive to consider as a long-term alternative fuel, a draft EU report says.
    The study ‘EU Transport GHG [greenhouse gases]: Routes to 2050’ estimates that before indirect effects are counted, the abatement cost of reducing Europe’s emissions with biofuels is between €100-€300 per tonne of carbon.
    At current market prices, this would make their CO2 reduction potential up to 49 times more expensive than buying carbon credits on the open market at €6.14 a tonne.   
    But the EU’s authors conclude that it “it is not possible (and useful) to determine cost effectiveness figures for [conventional] biofuels” because their indirect effect - measured in cleared forests and grasslands (‘ILUC’) - make it a CO2-emitting technology.
    The latest report will feed a growing unease about the reasons for the EUs original biofuels policy - justified in environmental terms - and the way it has developed since.
    “The truth is that policy makers inside and outside Europe are doing biofuels for other reasons than environmental ones,” said David Laborde, a leading agricultural scientist and author of key biofuels reports for the European Commission.
    “It’s a new and easy way to give subsidies to farmers, and it’s also linked to industrial lobbies that produce these biodiesels, and also what they will call energy security,” he told EurActiv.
    “They want to diversify the energy supply, and keep their foreign currencies instead of buying oil from the Middle East. They prefer to keep it for something even if it is not efficient or even green,” he added.
    The 10% target
    In 2007, the EU first set a 10% target for the use of blended biofuels in transport by 2020.
    Although the target was re-sourced from ‘biofuels’ to ‘renewable energy’ in 2009, analysts say that 8.8% of the EU target will still be provided by biofuels, and up to 92% of that will come from conventional biofuels like biodiesel.
    Industrial associations disagree, putting the EU’s ratio of sugar-based ethanol, one of the best-performing biofuels, to biodiesel, one of the worst, at 22%-78%.
    But both the original announcement and the Renewable Energy Directive two years later conditioned biofuel use on subsequently neglected criteria of cost-efficiency, sustainability and, where available, the use of second generation fuels.  
    “I don’t think we are there on cost-effectiveness,” said GĂ©raldine Kutas, Brussels representative of the Brazilian Sugarcane Industry Association (UNICA).
    “There are no monetary provisions to support this in the directive, and second generation biofuels are still a promise. They are not commercially available yet,” she said.
    Even trying to address the issue of indirect sustainability criteria for biofuels had gummed up the EUs policy-making process, she acknowledged. 
    French farmers
    Research by EurActiv has uncovered evidence that the EU’s original biofuels target was set as much for industrial and political reasons, as environmental concerns.
    Claude Turmes, the European Parliament’s rapporteur responsible for steering the Renewable Energy Directive into law, said that business lobbies had influenced his negotiations with the then-French Presidency of the European Council.
    “There were two lobbies, the sugar farmers lobby and the German car industry who tried to prevent the EU’s CO2 and cars legislation,” Turmes (Greens/Luxembourg) told EurActiv.
    “The origin of the 10% renewables in transport target was the fact that these two lobbies joined forces to impose it on the Commission.”
    EU insiders spoken to by EurActiv agreed, saying that biofuels had been a quid-pro-quo demanded for the imposition of ‘greener’ measures in the directive that would encourage wind and solar energy, and cut emissions. 
    European sugar farmers had suffered in the 2006 Common Agricultural Policy reform which reduced the guaranteed sugar price by 36% and opened up the European sugar market to global competition.
    A guaranteed market for agrifuel made from sugar-based ethanol held out some prospect of compensation. And the strength of the French farmers lobby made removing the 10% target “an absolute no go area” for Paris, Turmes said.
    “The farm industry was obviously interested in biofuels, biochemicals and the bio-economy more generally,” Kutas added.
    But Europe’s sugar farmers profited far less from the EU’s biofuels policy than growers of feedstocks for biodiesel, better suited to the continent’s diesel-based auto fleet.  
    Car industry
    EU officials say that the car industry was also instrumental in pushing for the biofuels target to be included as a compromise to bridge the gap between the 130g of CO2 per km that the EU wanted as a target for 2012 and the 140g that the car industry was prepared to offer.
    “It was no secret,” a source told EurActiv. “It was very clear what they were lobbying for and it went all the way up the Commission”.
    As a result, officials in the EU’s energy directorate responsible for biofuels did not treat research which questioned the fuel’s environmental credentials in the same light as that which supported it, multiple sources confirm.  
    The EU’s biggest error was “that we started to make a policy without knowing the effect it would have,” Laborde said.
    “We are now discussing the land use effect after saying for ten years that we need biofuels to reduce emissions,” he went on. “It was a serious mistake.”
    Indirect emissions proposal
    Brussels is due to publish a proposal measuring the indirect emissions caused by biofuels later this year, distinguishing between low-emitting biofuels such as ethanol and high-emitting ones like biodiesel.
    But the EU’s decision-making process has been paralysed by the ongoing dispute between its energy directorate – which does not want ILUC factors considered – and its climate directorate, which does. And there are other problems too.    
    Both the Renewable Energy and Fuel Quality directives contain ‘grandfathering’ clauses exempting all existing biofuels installations as of 2014 from further legislation until 2017.
    As the biofuels industry’s existing capacity is already on the cusp of meeting the 10% target, according to a new report by the environmental consultants Ecofys, this would create massive overcapacity.  
    The Institute for European Environmental Policy has calculated that on current trends, land conversion of between 4.7 million and 7.9 million hectares would be needed to accommodate the extra biofuels production, an area roughly the size of Ireland. 
    But the introduction of any ILUC factor would probably rule out high-emitting conventional biodiesels, the majority of Europe’s biofuels production.
    That would create a political backlash in EU states such as France and Germany, and potentially tear up the compromise which allowed the Renewable Energy Directive to be passed in the first place.  
    For now, the proposal remains stuck in the corridors of an EU that appears equally frightened of the political consequences of admitting a policy mistake and the environmental consequences of denying it.
    CCRES special thanks to 
    Brussels Network Office:
    International Press Centre
    Boulevard Charlemagne, 1 b1
    B-1041 Brussels
    CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)
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    Kamis, 10 Maret 2016


    This is how to make a homemade carbon dioxide generator for your aquarium plants or algae.
    yeast
      sugar
     tubule
     bottle 2 lit
     add sugar 50 g
     add yeast 20 g
     pierce stopper
     half a liter of hot water
     distilled water with the pores of Spirulina
     the pipe going into the water
     CO2 begin to sink into the water after 10 minutes
    after a few weeks you have
     SPIRULINA
     CCRES SPIRULINA 
    project of
    Croatian Center of Renewable Energy Sources (CCRES)
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