#1 Vertigro – Gas, Diesel, Biofuel production from algae

Grow mass amounts of algae and produce 20000+ gallons of bio-fuel on one acre. With the amount of farm space of 1/10 the size of New Mexico we could produce enough fuel to fill the United States’ need for oil.

Article by Sam Vaknin

Technologies that appear at first blush and in the lab to be both benign and efficacious often turn out, upon widespread implementation, to be counter-productive or even detrimental. We have yet to accurately capture and model the complexity of reality. Emergent phenomena, unintended consequences, unexpected and undesirable by-products, ungovernable economic and other processes all conspire to adversely affect the trajectories of even the most thoroughly studied inventions.

Biofuels are the poster children of such good intentions gone terribly awry. Rather than retard global warming, scientists (such as Holly Gibbs, a postdoctoral researcher at Stanford’s Woods Institute for the Environment, Matt Struebig from Queen Mary, University of London, and Emily Fitzherbert from the Zoological Society of London and University of East Anglia) are now warning that they may enhance and accelerate it by encouraging deforestation in the tropics. Indeed, the higher the prices fetched by biofuels, the more rainforests are being ferociously decimated in the quest for arable land.

Moreover, biofuels are energy-inefficient: their production consumes more energy than they yield in burning. The disastrous effect they have on food prices is amply documented. Another study demonstrates that their consumption releases more carbon dioxide into the atmosphere than the quantity of fossil fuels that they replace.

This “carbon debt” is especially true if we take into account the gases released by the incineration of trees mowed down to make place for the (often state subsidized) cultivation of biofuels. There is also a “biodiversity debt”: up to five-sixths of indigenous species are extinguished once a forest is cleared to make way for oil palm plantations, for instance.

Though much hyped, biofuels should not serve as part and parcel of the energy policy mix. Some wonks suggest that biofuels should be allowed to be grown only on marginal or degraded land. But, this would require enormous investments in fertilizers and other technologies intended to halt soil erosion and nutrient leeching. From the point of view of environmental accounting, such tracts better be re-forested. Forests recycle rainwater, act as carbon skins, prevent floods, and serve as habitats to species, some of them endangered.

About the Author

Sam Vaknin ( http://samvak.tripod.com ) is the author of Malignant Self Love – Narcissism Revisited and After the Rain – How the West Lost the East.

He served as a columnist for Central Europe Review, Global Politician, PopMatters, eBookWeb, and Bellaonline, and as a United Press International (UPI) Senior Business Correspondent. He was the editor of mental health and Central East Europe categories in The Open Directory and Suite101.

Bugs to Make Biofuel Production More Efficient

Article by Chris Woolfrey

Biofuel is in one respect the oldest form of man-made fuel in the world; long before industry boomed and the industrial period began, biological organic matter was the cheif source material for fuels. It was only until the relatively more powerful use of fossil fuels became dominant that biofuel found its admirers dwindling; in the age of industry, it has suffered relatively low popularity, though that point stands for most alternatives to fossil fuels, which is the source material for over 80% of annual energy production across the world.

With the rising interest in climate change affecting governments, individuals and the world’s media, though, fossil fuels are seemingly on the decline; whilst more than three quarters of energy production has conistently come from the source for a number of years, this has gone hand in hand with dangerous levels of carbon emissions, of which it is reported that fossil fuels contribute more than 20 billion tonnes anually. With experts suggesting that global natural resources can only induce half of that figure, and global warming increasingly becoming a world concern, investment into alternative energy has risen by over 140% in the two years.

Of these alternative energy types, biofuel is one of the most prominent, and it seems that man-made fuels have come full circle. Though production of the fuel is substantially lower than solar power and even hydroeletricity, it remains one of the most important examples of alternative energy.

And indeed, research into the field has reaped rewards, with new developments granting the industry a potentially greater fuel efficiency.

Experts have now suggested that the use of a bug that thrives on detritus will increase the speed at which the original biological matter is broken down and converted into fuel. It will originally be used in the production of ethanol, but it is hoped that the bug can increase efficiency of biofuels across the industry. Indeed it is beleived that the bug can also increase then range of material included in the conversion process; more hardy, it is beleived to be able to break down tougher plant and animal life that current conversion techniques cannot.

It will certainly strengthen the case for a return to biofuel as renewable energy types gain momentum, and it could perhaps do with the positive press after some controversial statistics have begun an increasingly polemical debate on the ethical standards of biofuels; the World Bank reported that the consumption of crops across the world for biofuels has resulted in a rise of 75% in world food prices.

The debate does not simply centre around economics. On their website, Friends of the Earth have questioned the actual environmental impact of biofuel production, claiming that they could actually produce more green house gases than the process reduces; it is generally argued that CO2 emissions from biofuels are offset by the consumption of carbon during the source supply’s lifetime, but the orginsation claims that the combined energy cost of planting, production, conversion and transport negates the theory.

On a similar agenda as the World Bank, they take the rising food price to be an indication that biofuel production could directly affect food supply levels for some of the earth’s most poverty stricken populations.

About the Author

Chris Woolfrey is the environmental expert for http://www.ecoswitch.com,specialising in research for the energy industry, including biofuels.

Vivian , Samantha and Daniel demonstrate there Bio-fuel experiment.

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IRAQ HAS A DATE WITH BIOFUEL PRODUCTION

Iraq’s Prime Minister, Nuri al-Maliki, has announced approval for an agricultural project that will develop biofuel from rotting dates.

According to Reuters, “Iraq has the world’s third largest oil reserves but its crumbling farm sector, which has suffered from decades of sanctions, isolation and war, is the country’s leading employer.”

The dates-to-biofuel program, being developed by an unnamed company based in the United Arab Emirates, is seen as a way to encourage growth in the farming sector which Iraqi officials hope will ultimately lead to greater agricultural productivity.

Iraqi officials also hope it will reinvigorate their once vibrant date export industry. The country, which produced 900,000 tons of dates prior to the U.S. invasion, now produces only 350,000 tons. By giving farmers a way to profit from dates that are starting to rot, they help to minimize the risk.

And the oil rich country plans to use the biofuel domestically at first, with the possibility of future export.

In another oil exporting country, Oman, Oman Green Energy Company (OGEC), has been testing the development of biofuel from the date palm for some years. In the case of OGEC, they claim to use cellulosic biomass extracted from around the date palms and in a way that doesn’t interfere with the date crop.

In a 2008 study, desert dates were also found to be an excellent source of biofuel stock, especially for arid regions. The study focused particularly on the Arava desert in Israel and its potential to develop cost-effective biodiesel production.

While biodiesel production in oil poor Israel makes sense, biofuels might be seen as a gamble in a country like Oman which exports 700,000 barrels of oil a day, and derives 90% of its export revenue from oil.  Likewise a biofuel program in Iraq, where the country’s financial stability has been put in the hands of its oil industry, may seem out of place. And yet, biofuels are seen as delivering additional value. In Iraq, they may be the key to bringing back a devastated agricultural sector.

Question by kelly: problems that have to face if using biofuel?

1)what is the problems that we have to face if we use biofuel and how to solve it?

2)where can i find the informations bout it?

Best answer:

Answer by cakeeater
1. fields and fields of crops must be grown to meet todays demands on fuel, this would cause immense deforestation.

2. biofuel could be used in conjunction with other clean energys. however these all have problems of their own

What do you think? Answer below!

Biofuels scandal + food prices. Biofuel crisis, biofuel oil, biofuel production, cars, algae, systems and basics introduction to facts about biofuels. Conference keynote speaker Patrick Dixon

www.globalchange.com Why biofuel industry is dead — biofuel by converting food into oil is stupid and immoral. Biodiesel, biomass, biowaste and sugar to fuel conversion into biofuels. Foor price rises. World bank report on biofuels and food prices. Ethanol and gasoline or petrol mix, European Union EU policy changes on biofuel. Biofuels policy reversal. Anti-biofuel campaigns. Biofuel blamed for food riots, hunger, food shortages, rising food prices, wheat prices, food hoarding and stockpiles. Biofuel production speculation in food futures. Biofuel links oil price to food price. Do biofuel quotas cause starvation, Africa Asia, India, China? Competition from biofuel manufafturers for food — poor people cannot eat, food prices rise, biofuel means burning wheat in car engines, driving vehicles on biofuel, adding ethanol to petrol / gasoline. Biodiesel, soybean price rises, rice price rises, food riots, biofuel destruction of forests for agriculture. Non biofuel reasons for rising food prices: drought, crop failure, hoarding, ban on food exports, stockpiling of food, speculation on food commodities markets. Ethics of biomass fuel generation and increased use of fertilisers. Net carbon footprint of biofuel production. Net biofuel consumption or saving of CO2 / energy. Global trade in biofuels, food, oil and energy. Ethical crisis in biofuels industry. Federal government policy on biofuels and national energy policy. EU fuel regulations for ethanol, biodiesel and biomass fuel

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Biofuel Production in Brazil and Africa: A Comparative Study

Sustainable energy has been one of the main preoccupations worldwide. Leaders of industrialized nations, environmentalists as well as leaders of developing nations have seen in biofuel production a way out to several problems and a horizon of hope, as biofuel has also opened up a number of possibilities to help poor people in the developing countries of Asia, Latin America and Africa who are mostly based on rural settings.

            Firstly this production can promote an investment in agriculture creating a large number of jobs, raising the level of life quality in those poor areas. Secondly, it will also bring to rural areas some technological devices that will improve many lives. A good example is ethanol in Brazil which has a promise to create 12 millions of jobs by 2030. Furthermore, the production of ethanol is a hope of recovery after economic crises which have taken millions of workers to lose their jobs.

            On the other side are those skeptical who criticizes ethanol defending that poor people from developing countries need to grow food, not another cash crop to be exported to industrialized countries. For those ones, the biofuel would worsen poor people’s lives.

            Thus, in Africa some excitement about ethanol production as a new path to development has led African leaders to embrace this idea and biofuel/ethanol has been already largely produced in the continent. Considering this sustainable energy revolution, the main goal of this essay is to examine the constraints for African women farmers of ethanol production in Africa because any proposal of development that does not include women is already a failed attempt.

(Read more ….)

 

Global Biofuels Market: Opportunities, Emerging Technologies And Production

This report is the most comprehensive treatment of the biofuels market available. Worldwide data is provided on biorefineries, conversion and separation technologies, manufacturing, research and development, organic biofuels, consumption, capacity, components and competition.

This report delves into the global efforts to develop technologies that improve the refining processes associated with many different types of biofuels and its growing consumption among nations throughout the next few decades.

Biofuel is expected to become a major renewable resource to produce fuel, electricity, heat, and other sources of power. To compete with other energy types will require development and implementation of an enhanced biorefinery process that minimizes its impact on local environments. Developing sustainable fractionation and separation technologies will be a key factor for the success of refining biomasses into renewable energy.

Biorefinery technology differs from traditional oil based refinery technology because it will be mainly water-based. Today’s biofuels involve either ethanol or diesel, with the former accounting for roughly 90 percent of the market. Brazil, the United States, and China are the greatest producers. More than half of the world’s bioethanol is generated from sugar cane; the rest comes mainly from corn. Biodiesel is mostly derived from rapeseed and sunflower.

TABLE OF CONTENTS
Chapter 1: Executive Summary
Outlook for Biofuel Consumption
External Factors Affect Growth of Biofuels
Food Prices Fuel Biomass Debate
United States Remains Hotbed of Biomass Activity
Biofuel Technology Research
Global Market Values
Manufacturing, by Country, 2009 and 2014 (in $ millions)
Shipments of Organic Biomass Feedstocks
Imports of Organic Biomass
U.S. Shipments of Biomass Conversion Technology Components
U.S. Backs Biofuel Innovations
Federal Funding Fuels Innovation
Innovations in Biorefineries
Innovations in Biofuel Processing
Biofuel Energy Policy Fuels Debate
Biofuel’s Effect on Food Prices
Biofuels Lobbying Efforts
Global Policies toward Biofuels
Market Value Forecast Through 2014

Chapter 2: Introduction and Overview
Report Scope
Methodology
Terminology
Future Biomass Conversion Technologies
First- and Second-Generation Liquid Biofuels
Ethanol Production Processes
Biomass Feedstocks

Chapter 3: World Bioenergy Activities & Technologies
External Factors Affect Growth of Biofuels
Food Prices Fuel Biomass Debate
United States Remains Hotbed of Biomass Activity
Biofuel Technology Research
Reduction of Greenhouse Gases

Chapter 4: World Biomass Market Trends
Shipments of Organic Biomass Feedstocks
Manufacturing, 2004 and 2009 (in $ thousands)
Biodiesel Trade Market in Flux
Imports of Organic Biomass
U.S. Shipments of Biomass Conversion Technology Components
Imports of Technology Components
Biomass Conversion Technology Exports
Market Value Forecast Through 2014

Chapter 5: Manufacturer Profiles

Archer Daniels Midland (ADM)
Bunge
CHS
Royal Dutch Shell
Foster Wheeler
Wilmar
Tenaska

Chapter 6: Innovations in Biofuel Technology
U.S. Backs Biofuel Innovations
Diversity of Cellulosic Feedstocks
Federal Funding Fuels Innovation
DOE Funds Advanced Biofuels Projects
Innovations in Biorefineries
Whole Crop Biorefineries
Ligno Cellulosic Feedstock Biorefineries (LCFBR)
Green Biorefineries
Two Platform Concept Biorefinery (TPCBR)
Marine Biorefinery (MBR)
Thermo Chemical Biorefinery (TCBR)
Innovations in Biofuel Processing
Advances in Ethanol Separation Technologies
Germ and Fiber Separation
Enzymatic Dry Milling
Dry Fractionation
Ammonia Process in the Wet Mill
Continuous Membrane Reactor for Starch Hydrolysis
Alkali Wet Milling
High-Gravity Fermentation
Improved Yeast
Conversion of Pentose Sugars to Ethanol
Enzymes for Liquefaction and Saccharification
Enzymes to Reduce Sulfur Dioxide
Distillation Technology
Control Systems
Environmental Technologies
Biodiesel Derived From Tallow

Chapter 7: Consumers of Biofuels
Biofuel Energy Policy Fuels Debate
Feedstock Implications
Legislation Favors E85 Production
Biofuel’s Effect on Food Prices
Studies Point to Ethanol’s Effect on Food Prices
Biofuels Lobbying Efforts
Global Policies Toward Biofuels
European Union Changes Biofuel Composition
Japan Continues Import Strategy
India Ethanol Blends Fluctuate
China Steps Up Corn Ethanol Production