After the success of these summits, Growdiesel Climate Care Council is pleased to invite you to the International Workshop on Algae Biofuel to be held on the 12th & 13th of April 2010 in India.
The workshop is focused on next generation of Biofuels using Algae as a main feedstock. The workshop offers an excellent opportunity for investors, entrepreneurs, Biofuel companies, renewable fuel experts, their associates and academia to share their valuable experiences and knowledge. The main objective of the workshop is to provide an understanding of the next generation feedstocks and technologies in the Algae Biofuel Industry. The workshop will be an excellent platform to disseminate information regarding research & development activities in the field of phycology, algae mass production systems, photobioreactor technologies and other important areas of Algae Biofuel Industry. The workshop’s technical & financial topics will encompass the entire Algae Biofuel Industry.
Growdiesel Climate Care Council is a non-commercial organization. The council works on non-profit basis for the welfare & benefit of the Society and presently dedicated to the cause of climate care through prevention of Global Warming. Growdiesel has organized three highly successful international summits “Algae Biofuel Summit 2008”, “Energy Farming Summit 2009” & “2nd Algae Biofuel Summit 2009” in India. These summits was attended by researchers, scientists, top management experts and delegates from leading research institutes, universities and reputed organizations from over 21 countries across the world.
Previous participants have include:
Alstom Power w Ambuja Cement Limited w Bhabha Atomic Research Centre w Bionova Engineering w Birla Cement w Bharat Petroleum Corporation Limited w CALS Refineries Ltd w CSIR w Dow Chemicals w Defence Research & Development Organization w Essar Group w Indian Oil w Indian Institute of Agriculture w Jubliant Organosys Ltd w Keppel Offshore & Marine Technology Centre w Live Fuels w Mission Biofuels India Pvt Ltd. w NABARD w Nava Bharat Ventures Ltd w Neste Oil Corporation w Oil India Ltd w Perry Neutraceuticals w Petrobras w Petronas Gas BHD w Petro Algae w Praj Industries Ltd w Sasol Technology w Surfactant & Bioenergy Research Centre w Shell Technology India w Tata Chemicals & others
Who will participate in Algae Biofuel Workshop 2010?
The Workshop will be widely attended by global CEOs, COOs, Knowledge Managers, Business strategists, Researchers, corporate heads, VCs, angel investors, entrepreneurs, Energy/Petroleum experts, senior officials from government/financial institutions, Biofuel traders, etc. In addition, decision makers from the following industrial segments are also expected to attend the Workshop: · Commercial Diesel Users, Corporate & Industrial Diesel Users
· Energy producers & oil companies
· Transport industries, including shipping, port trust and Airline
representatives
· Hotel & hospitality industry representatives
· Educational institutes
· Biofuel and Renewable energy project developers & equipment
manufacturers
· UN agencies, global agencies, consulates, foreign missions
· Local & global government agencies
· Research institutes & R&D centers
· Industrial association, bodies, environmental support agencies,
carbon mitigation & trading companies
· Angel investors, entrepreneurs, venture capital companies, private
equity companies, banks , financial institutions, commodity traders,
etc.
Key topics to be covered at Algae Biofuel Workshop 2010
§ An introduction to Biofuels
§ An introduction to First Generation Biofuels
§ Current Status of global biofuel industry
§ An introduction to Algae Biofuel – The next Generation Biofuel
§ Advantages of Algae over first generation biofuels
§ Current status of global algae biofuel industry.
§ Pros & Cons – sustainability factors in technological, economical ,
social & regulatory environments. Do Algae Biofuels provide
solutions to the fuel vs. food debate?
§ An introduction to An introduction to Algae Growing Systems
§ Studying the technological options for algae farming systems-
Open Ponds or Enclosed Ponds
§ Enclosed Photobioreactor Systems
§ Hybrid systems using Enclosed Ponds & Enclosed
Photobioreactor Systems
§ Enclosed Photobioreactors vs. open ponds - which is the right
technology for commercial Algae Biofuel projects?
§ Studying the capacity options for energy farming systems. Small
vs. large: What is the right size of an energy farm?
§ Lipid Production from microalgae, strain selection, induction of
lipid synthesis and outdoor growth- Algal Strain Selection and
development of Algae Mass Culture Techniques for Biofuel
Production
§ Maximising solar conversion efficiency in mass culture
§ Achieving both high oil content and high productivity in mass
culture
§ Opportunities in Algae Biofuel Sector for corporate
§ Using Algae as a tool for CO2 mitigation and driving the Carbon
Capture and Recycling process for reversal of global warming
§ Developing a process for Production of algae from industrial plant
flue gases – An approach toward Emission to Biofuel
§ Opportunities in Algae Biofuel Sector for SME-small & medium
entrepreneurs
§ Financial Modelling and feasibility assessment for decentralized
Bioenergy farm Project
§ Developing a process to purify, compress and bottle algae biogas
as compressed methane gas for using as motor fuel and cooking
gas
§ Establishing a marketing network to sell environmental friendly
bioenergy products
§ Opportunities in Algae Biofuel Sector for Rural Entrepreneurs
§ Sustained algae cultivation in open ponds
§ Developing a process for integrating Algae Biofuel projects with
dairy, piggery, poultry and aquaculture farms
§ Developing natural milk with high percentage of good cholesterol
§ Developing eggs and poultry products with high percentage of
good cholesterol
§ Opportunities in Algae Biofuel Sector for Public Bodies/ESCO
companies
§ Developing a process to utilize Algae for treatment of liquid
waste/effluent waste water & using the resultant algal biomass for
Bioenergy production
§ Developing a process for extracting nutrients from municipal waste
water before safe discharge in river streams & using the resultant
algal biomass for Bioenergy production
§ One to one meeting of Biofuel producers with biofuel product
traders
to discuss opportunities for mutual tie-up
§ Road Map to enter the trillion dollars next generation Biofuel
Industry by Thinking BIG & starting small
§ Developing a CDM project for obtaining Carbon credits for Algae
Biofuel projects
§ Tapping innovative Financing options for Integrated Bioenergy
Projects
Frequently Asked Questions about Algae Biofuels
Q: What are algae?
Algae are simple organisms that range from very small, single-celled microalgae to macroalgae that group into very large organisms such as kelp. There are more than 300,000 species of algae in global algae culture collections. The vast majority of algae are photosynthetic, deriving energy from the sun to produce energy and biomass.
Q: Are algae currently a commercial crop?
Yes. Algae are grown commercially around the world, primarily for nutritional, feed, and specialty product use.
Q: What is required to grow algae?
The primary requirements for growing algae are sunlight, water, and carbon dioxide (CO2). Algae also require nutrients and environmental conditions appropriate to the specific algal species.
Q: How much CO2 is used by algae?
Algae productivity is dependent on carbon intake, as carbon constitutes over 50% by weight of Algae Biomass. Algae can consume high concentrations of CO2 (between 5-30%) as it is emitted from power, cement and chemical plants before it is absorbed into the atmosphere. Atmospheric CO2, at less than 0.04%, need to be supplemented with additional CO2 to deliver high productivities.
Q: What kind of algae is used for biofuels?
Microalgae are selected based on a number of factors, most notably high innate growth rates, favorable overall composition (lipids, carbohydrates, and proteins), and ability to grow in specific climatic conditions.
Q: How much algae grows in a hectare?
There are a number of variables including innate growth rate per species and seasonal availability of sunlight. We anticipate that a commercial algae farm will grow an average of 10 times more oil per hectare as compared to Jatropha. We estimate a modest growth rate of 100 tons Algae Biomass per hectare per year. From this we shall obtain 25 tons of oil & balance shall be used for cattle feed.
Q: What products does an algae crop yield?
An algae farm is designed to produce a number of products including algal oil, delipidated algal meal (DAM) and dried whole algae (DWA). The algal oil is suitable for conversion to biodiesel and can be substituted for any other vegetable oil (soy, palm, Jatropha) in a commercial biodiesel production plant. The DAM and DWA are suitable for a wide variety of animal feed applications.
Q: How much oil can be made from algae?
Different species of algae generate different amounts of oil. Algae species can contain from 2% to 70% of their weight as oil.
Q: How does Algal meal compare to other meal products?
The algae meal has a high protein content compared to other animal feed product such as dried distiller’s grains from ethanol production or soy meal after oil removal.
Q: What is the benefit of focusing on algae instead of other energy crops like Jatropha?
Growdiesel has done substantial work on Jatropha, in fact we have a portfolio of 30 different fast growing variants of Jatropha. We also have a model plantation in 100 acres in India. However we discovered that Algae have some advantages to other energy crops, specifically:
Algae are the fastest growing plants in the world and can be grown year round, unlike seasonal crops. Algae farming does not require agricultural land or clean water, so it does not compete with food crops for these resources.
While it is difficult to compare one energy crop to another, per hectare of farming of algae is around 10 to 100 times more productive than corn, soy, palm or Jatropha,
Unlike other energy crops, the entire biomass produced from algae can be used in end products. Lastly, the algae can be used to produce renewable biofuels needed to reduce dependence on non-renewable fuel sources such as coal, oil and natural gas.
Please register online for attending Algae Biofuel Workshop. Experts shall be available at the workshop for providing you complete info on this wonderful project.
Q: Do you believe that algae are the solution to the world’s energy problems?
We believe that ecological and energy issues are complicated and will require a variety of solutions -- of which algae will be one.
Q: Are there any accurate measures to compare algae to other energy crops?
Due to a large number of variables, it is difficult to accurately compare one energy crop to another. We recommend comparing energy crops based on the final products produced, and the resources required to produce those products.
Q: How are algae different from other energy crops?
Algae are different from other energy crops in one significant way--the entire biomass produced from an algae farm can be used in end products that are economically valuable. Unlike comparable crops (corn, sugar cane, rapeseed/canola, palm, soybeans, sunflower, Jatropha, etc.) which typically contain a substantial amount of wasted biomass, 100% of algal biomass can be used to create new products.
Q: How does algae productivity compare to other energy crops?
Unlike seasonal crops, algae can be grown year round. Since an algae crop does not result in wasted biomass, algae are generally considered to be more productive than comparable energy crops. While other TBO like Jatropha takes 2-3 years for a commercial crop, algae farm can start yielding within 2-3 days. While Jatropha gives crop once a year, algae can give oil on daily basis just like milk.
Q: How much CO2 can algae consume?
CO2 consumption is based on the overall lipid/protein/carbohydrates balance of the final algae. Lipids are typically about 75% carbon by weight, with carbohydrates approximately 40% carbon by weight, and proteins between the two. Algae are approximately 50-55% carbon by weight; about 1.9 times the biomass weight in CO2 is required to generate algae with this composition. If algae with a higher lipid content is produced, that ratio will be higher; the higher the carbohydrate composition, the lower this ratio.
Q: How large must an algae farm be to mitigate emissions from a typical power plant?
Based on information in public domain, for approximately 50 power plants in India that generate and sell electricity as their primary business and use coal as the primary power source, the average facility nameplate size is 655 megawatts. For this 'average' plant, when both the power plant and algae farm are in full operation, approximately 8000 hectares of algae growing area is required to consume 40% of CO2 emissions. To achieve a 5% reduction in CO2 emissions, 500 hectares of algae growing area would be required for each power plant. This becomes an interesting business model for the utility as it can generate huge carbon credits by converting its emissions to biodiesel.
Q: How much water does an algae farm require?
An enclosed algae farm uses minimal water and the evaporation losses are also limited. Some water is required for the photosynthesis reaction, and some is lost in the creation of algal products. However as compared to any other energy crop, algae farm consumes just 1% of water.
Q: Can an algae farm use waste feed water streams that are high in nutrients such as phosphorous and nitrogen?
Nutrient-rich waste water feed streams will be used to provide some or all of the nutrients needs of the algae farm. Streams which have a potential to be used in this way include runoff from animal facilities and treated wastewater.
Q: Where can I get complete info to establish an algae Biofuel project?
Please register for attending Algae Biofuel Workshop 2010. Experts shall be available at the workshop for providing you complete info on this wonderful project.
Q: What is Photosynthesis?
Photosynthesis is the process by which plants utilize the energy in the sun’s rays to produce energy and new plant matter (biomass). Photosynthesis is the base reaction supplying the vast majority of energy used by plants and animals on earth. In photosynthesis, energy (photons) from the sun’s rays converts carbon dioxide and water to carbohydrate plus oxygen. The carbohydrate can be converted to protein or fat.
Solar energy is spread along a wide range of wavelengths, of which only a portion is useable for photosynthesis. The wavelengths useable by plants are known as photosynthetically active radiation (PAR), and include about 45-50% of the total solar energy. Energy requirements of the photosynthesis reaction reduce the usability of that 45-50% by another factor of 4, making the theoretical energy use roughly 11% of the overall solar energy.
This photosynthetic efficiency is translated into biomass including fats, proteins, complex carbohydrates (cellulose, lignin, etc.) and simple carbohydrates. Also, most crops contain water. To eliminate the effect of water, we present values based on dry biomass. We also need to understand that production of other compounds from simple carbohydrates requires some of the energy.
We have grown algae at a photosynthetic efficiency of approximately 5.4% under natural sunlight. General crops grow at a photosynthetic efficiency of approximately 1%. Algae can be grown much more efficiently because of the nature of the bioreactor and the removal of factors that might limit growth such as lack of nutrients or CO2.
You can also improve algae growth by using artificial lighting. Algae will grow 24 hours per day if there is sufficient light. However, due to the energy losses inherent in each step from generating electricity to create light and using the light for photosynthesis, this is not economical for anything other than studies, unless the value of the final product is very high (as it is for some commercial algae farms where artificial light is used).
Algae could allow companies to recycle emitted CO2 from flue gases and even earn a profit from being "green". Fast growing algae use the process of photosynthesis to harness sunlight and carbon dioxide and then convert them into carbohydrates. The cells containing these valuable materials can then be utilized for the production of various fuels such as biodiesel and ethanol, or used as ingredients for animal feed.
Companies, having issues with environmental control, can surely benefit from such technology. Algae farming technologies will allow the capture and recycling of CO2 from smokestacks, fermentations and geothermal gases. The beautiful part of this technology is that industrial facilities do not need large internal modifications to host an algae farm.
Algae can surely make an impact on many industrial companies. The algae technology has the potential to substantially effect companies' policies, making it more profitable not to pollute.