TBK BIODIESEL BIOFUEL

Fueling America - Without Petroleum!

Do you need a FAEE based fuel that is 100% Advanced Biofuel?

Welcome to TBK-Biodiesel the next generation fossil-free BioDiesel Fuel. 

TOMS BioDiesel

2012 TOMS Bio Fuel Introduction | | TBK100 Test report  | TBK OMV summary | TBK-BD Summary | BD TBK International.pdf | 2012 TOMS "Triglycerides Of Modified Structure" | ALL 5 FILES ZIPPED |

Our 2011 Brochure  |  Our Algae Brochure  |   ALGAE EXTRACTION BROCHURE  01/2011 |  RICE UNIVERSITY CONFERENCE  01/2011 |  COFFEE GROUNDS OIL TO TBK BIODIESEL  |  WATER FREE PROCESS  |  VALERO ENERGY  ZEACHEM  MISSION NEWENERGY JATROPHA  |  VALERO MISSION NEW ENERGY  | TOMS TBK SUNFLOWER OIL REACTION |

One day TBK-Biodiesel FAEE fuel will lead to U.S. independence from petroleum-based diesel fuel.

The Energy Independence and Security Act of 2007 :  The RFS renewable fuel standard mandate for biodiesel blending this year is 900 million gallons, and TBK biodiesel FAEE Fuel qualifies as an advanced biofuel.  http://www.biodiesel.org/news/pressreleases/20101129_Volume_requirements.htm

- Imagine a biofuel that:
- Is ideal for existing diesel engines
- Does not use reagents derived from crude oil
- Does not use food feedstocks
- Is cheaper to produce than B100 BioDiesel FAME
- Is ideal as a diesel fuel additive or a replacement #2 Diesel fuel
- Has better fuel performance and lower emissions (NOx, HC, & Soot) than PetroDiesel and BioDiesel
- The U.S. burns approximately 17 million gallons of diesel a day (http://www.eia.doe.gov).
- Clean technology solution to stopping global warming, acid rains, and rising ozone levels in traffic- congested areas
- Glycerin-free biodiesel production : Because there is no glycerin produced as a by-product, the biodiesel purity is greatly improved and costs can be reduced.
- TBK Biodiesel Process
* 10% more BioDiesel than B100 FAME
* Glycerin Free Process - No Glycerin by product
* 100% Water Free - No Water is used to produce TBK biodiesel
* Lower NOx emissions that PetroDiesel

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On Road Test Results 01/2011 Sandy We are using an old Mercedes D for on road test purpose, but first with TBK25  (25% blend) , then TBK50 (50% blend) , and finally TBK100%. Now the driver guy is on TBK50, and indicates same mileage as with diesel, but "smoother" (quieter) engine!

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Second Hand Diesel Truck Smoke!

Using TBK-BioDiesel fuel lowers 3 Global Warming Gases Emissions, CO2, Methane, Ozone (NOx), HC, & 80% less Smoke/Soot Particulate Matter.

PetroDiesel US burns 17 million gallons of diesel a day. BioDiesel

 

Why TBK Biodiesel Fuels?

RENEWABLE :  It's made from American grown vegetable oils and ethyl acetate (ester of ethanol)

HEALTHIER  :  Reduces air pollution

BETTER  :  Higher cetane & lubricity than No.2 diesel & ULSD

VERSATILE  :  Similar BTU content to No.2 Diesel, (volumetric basis) can be splash blended

PRACTICAL  :  Mixes in any percentage with No.2 diesel & can be distributed through existing oil distribution infrastructures

FLEXIBLE  :  Diesel engines, generators and boilers can use biodiesel with no modifications

ENVIRONMENTAL  :  Biodegradable, non-toxic, doesn't add to GHG emissions

 

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Fueling America - Without Petroleum!

THE FUTURE:  3RD GENERATION ENGINEERED BIOFUEL

We have a Patent Pending "Chemical Pathway" to create a Blend of Biofuel Molecules that perform better than #2 Diesel and Biodiesel B100 fuel.

Today B100 BioDiesel is either FAME or FAEE Molecules.

The Future #2 Diesel Replacement Biofuel is TBK BioDiesel Fuel.

It's a mixture of FAEE Fuel and acetyl-triacylglycerols (ac-TAGs), i.e. Modified Triglycerides (Partially Acetylated TAG's), without any Glycerol by-product.

Our "Chemical Pathway" works so well that Oil Giant Chevron is copying our "Chemical Pathway" creating FAME and Modified Triglycerides (Partially Acetylated) from waste Glycerol.

Future "Drop In BioFuels" from Genetic Modified Plants and Algae

Plant Crop BioFuel   biological pathway to acTAGs & FAEE

Acetyl-Triacylglycerols (ac-TAGs) molecules may come from a biological pathway through genetic modified plants such as the burning bush.

MicroDiesel BioFuel (FAEE) : Engineered bacteria could be used to make FAEE biodiesel completely from food crops (or non-food oil crops), without relying on fossil fuels (as biodiesel does).

GMO: Might be much easier to get the genes produce "light weight" acetyl-triglycerides ("natural structures") than convincing them to synthesize FAME/FAEE ("unnatural structures").

Algae BioFuel

In the future, geneticists will succeed in altering the DNA of an oil-bearing algae strain to get the algae to secrete oils with short chain acetyl-triacylglycerides.

With our ethyl-acetate extraction ability we can connect TBK Biodiesel with algae oil producers, as the hexane-extraction process is a great burden for them. This adds to their economics.

or

Geneticists will succeeded in producing “drop-in” jet fuel and diesel fuel components from its “genetically improved” algae with the correct carbon chain length and degree of saturation.

 

 

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"Global Warming"  Drive with USA Algae Grown TKB-BioDiesel Fuel

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TBK BIODIESEL PARTIAL INTERESTERIFICATION FUEL  |   TBK-BIODIESEL OXYGENATED BIOFUEL  | DIESEL TRUCK EMISSION ENGINE TEST ETHYL ACETATE FROM BIO-ETHANOL  |  PLANT ACETYL GLYCERIDE OILS  |  SOLUTION TO THE GLYCERINE / GLYCEROL GLUT  | CHEVRON LOW MELTING POINT TRIGLYCERIDES FOR USE IN FUELS  | ALGAE BIODIESEL FUEL ALGAE BIODIESEL SOLID CATALYST  |   EXTRACTING PLANT AND ALGAE OIL WITH ETHYL ACETATE  |  BIODIESEL FROM COFFEE  | NATIONAL ALGAE ASSOCIATION  | PATENTSIDEAS  | WATER FREE PROCESS  |  ACETALS IMPROVE BIODIESEL PRODUCTION  |

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Contact Info: 

Janos Thesz  | Hungary | TBK BioDiesel Co-Inventor |  thesz@t-online.hu 

Contact Info:

Andrew J. Blair  | Eugene, Oregon | TBK BioDiesel USA Consultant |  blairaj@gmail.com   |

Contact Info:

Sandy Reifler | 1-800-221-6483  |  713-995-6110  | American Allergy Supply | Houston, TX |  americanallergy@yahoo.comsandy@tbkbiofuels.com  |

Here is our facebook page:
http://www.facebook.com/pages/TBK-Biodiesel/136651419701991

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Left

BioDiesel

Transesterification

Right 

TBK-BioDiesel

Partial Interesterification

Methanol from Fossil Fuel 100% Renewable Green Process
Canola Oil + Methanol Canola Oil + Ethyl Acetate
FAME with 10% Glycerol FAEE with Modified Triglycerides

 

Photo: Hungarian Inventors of TBK Biodiesel from left to right: Bela Boros, Janos Thesz, and Zoltan Kiraly, taken at the presentation of the "Invention of the Year" in 2007 in Hungary.

Thesz Boros Kiraly  BioDiesel

USE OF FUELS OR FUEL ADDITIVES BASED ON TRIGLYCERIDES OF MODIFIED STRUCTURE AND PROCESS FOR THEIR PREPARATION

PATENTS

Patented: Hungary: P 07 00187  WO2008096187A1.pdf

Patented: South Africa:  2009/06088

Patent Pending:
Australia: 2008212642
Brazil: PI 0807093-8
Indonesia: W- 00200902180
India: 3123/KOLNP/2009
European Union / Asia: 200970734
Malaysia: PI 200 93269
South Korea: 10-2009-7018701
Ukraine: 200909144
USA: 12/525,812

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TRADITIONAL BIODIESEL CHEMISTRY VS TBK-BIODIESEL CHEMISTRY

 

 

TRADITIONAL TRANSESTERIFICATION BIODIESEL CHEMISTRY

 

Triglycerides

+

Methanol

>>>

10% Glycerol

+

90% "BioDiesel"  FAME

Fatty Acid Methyl Esters

 

 

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TBK-BIODIESEL INTERESTERIFICATION CHEMISTRY

 

Triglycerides from Plant Oil or Algae Oil

Triglyceride

+

Ethyl Acetate from Cellulosic Ethanol (biodegradable solvent)

"Ester of Ethanol"

>>>

Modified Triglycerides (Partially Acetylated)

6 "O" atoms "Oxygenated Molecule"

This molecule % can change the fuel's viscosity. Modified Triglycerides (Partially Acetylated) can create light-diesel, heavy-diesel, or heating oil.

"Low Calorie Cooking Oil" Plant Oil Michigan State University

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Fatty Acid Ethyl Esters 

FAEE FUEL

Fatty Acid Ethyl Ester

 

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EXTRACTING PLANT AND ALGAE OIL WITH ETHYL ACETATE

Ethyl Acetate has low toxicity. Coffee beans and tea leaves are decaffeinated with Ethyl Acetate.

Jatropha Powder Ethyl Acetate Oil Extraction Algae Powder Ethyl Acetate Oil Extraction

Ethyl Acetate + Plant / Algae Oil    > catalyst > TBK BioDiesel BioFuel

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More Oil from Plant / Algae with Ethyl Acetate Chemical Extraction

More Oil from Plant / Algae with Ethyl Acetate Chemical Extraction

Jatropha Oil Extraction Procedure using Ethyl Acetate, Hexane, & Ethanol
High School Chemistry Laboratory Project
Of the three solvents, ethyl acetate and hexane were the easiest to evaporate following extraction, and ethanol was the hardest to remove. Ethanol 0.5 gms performed poorly following extraction, due to its non-polar and polar ends, and is not a good alternative to hexane.
Ethyl acetate 1.9 gms is an acceptable alternative to hexane 2.0 gms as it yielded a comparable amount of oil, and is possibly a more natural and sustainable method of jatropha oil extraction. Ethyl Acetate has low toxicity. Most Coffee beans and tea leaves are decaffeinated with Ethyl Acetate.

 

 

An important topic for TBK Biodiesel

Ethyl Acetate (EA), our interesterifying agent in the TBK reaction, can be used instead of hexane for oil extraction evidently, for all plant oils as well as for algal oils.

So with properly chosen EA volumes, this extract (Oil + EA) upon addition of catalyst, can be used straight for the TBK reaction, greatly improving on our economics.

So introducing this method at oil mills, the EA + oil mixture is to be transported to TBK plants. And if we could do this with green EA and thus replacing petroleum-derived hexane, we would gain still more.

 

Ethyl Acetate a more natural and sustainable method of Jatropha Oil Extraction    

High School Chemistry Project

  http://www.virtualsciencefair.org/2009/novo9a2/index.htm

Ethyl acetate is an acceptable alternative to hexane as it yielded a comparable amount of oil, and is possibly a more natural and sustainable method of jatropha oil extraction. An alternative to hexane in extraction should be considered for two main reasons: first, hexane is a fossil fuel, the second largest component of natural gas next to methane. Secondly, the United States Environmental Protection Agency (EPA) now considers hexane a hazardous air pollutant (HAP). It is monitored and regulated under the Toxic Release Inventory (TRI) Program of the EPA.

More Oil from Algae with Ethyl Acetate Chemical Extraction

The process of producing algae is really quite simple. Algae are grown in either open-pond or closed-pond systems. Once the algae have been harvested, the lipids (oils) are extracted from the walls of the algae cells. There are different ways to extract oil from algae.
The oil press is the simplest, most popular method because it extracts up to 75% of the oil from the algae being pressed.

Another process is called the hexane or ethyl acetate solvent method. In this method, the hexane or Ethyl Acetate solvent is combined with the pressed algae, which then extracts up to 95% of oil from algae. First, the press squeezes the oil. Then, the leftover algae is mixed with solvent, filtered, and cleaned to ensure that no chemical is left in the oil.

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Second Hand Smoke from Diesel Pickup Trucks

TBK BioDiesel use lowers 3 Global Warming Gases, CO2, Methane, Ozone (NOx), HC, & PM Smoke/Soot Particulate Matter.

PetroDiesel U.S. burns 17 million gallons of diesel a day

 

BioDiesel

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TBK-Biodiesel is a "Novel Biofuel" akin to Biodiesel.

TBK Biodiesel is compatible with conventional petrodiesel engines.

TBK-Biodiesel is similar to biodiesel (fatty acid methyl esters; FAME).

TBK-Biodiesel is a mixture of FAEE (fatty acid ethyl esters) and modified triglycerides (partially acetylated).

TBK Biodiesel is made using Partial Interesterification Process

TBK Biodiesel is made from 100% green renewable chemicals (plant oil or algae oil and ethyl acetate from ethanol or cellulosic ethanol) and exhibits superior performance when compared to pump-grade petrodiesel and biodiesel, although unlike pump-grade petrodiesel, TBK-Biodiesel contains no fuel additives. However, TBK-Biodiesel may be used as a fuel additive. 

When TBK-Biodiesel is more widely adopted, according to our recent engine test results, there are considerable benefits for our society (75-80% smoke reduction, and significant NOx reduction, as well as HC – unburnt hydrocarbon - reduction). These are just a few of the environmental benefits, not all.  DIESEL TRUCK EMISSION ENGINE TEST

For producers one major benefit is that there is no glycerol byproduct because the triglyceride structure (i.e. the gylcerol backbone) is retained in the form as part of the acytelated triglycerides that compose a large percentage of the liquid mixture that is the fuel. The other part of the fuel mixture is ethyl ester(s) of displaced long chain fatty acid(s); FAEE. So TBK-BIodiesel is a mixture of acytelated triglycerides (modified triglycerides) and ethyl esters (FAEE). This also implies that TBK-Biodiesel can use glycerol as a feedstock!

The process that produces TBK-Biodiesel is partial interesterification. TBK-Biodiesel is NOT produced via transesterification (which still uses fossil fuel derived methanol reagents). The TBK-Biodiesel production process can achieve specific viscosities within the same range as pump grade diesel (No.2 and No. 4), and therefore is a perfect replacement fuel when considering factors affecting its fuel properties and also its economic viability. 

http://www.algaebiofuel.com/

TBKBIODIESEL

 

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With TBK-Biodiesel we are talking an end to transesterification using methanol (a fossil fuel derivative as you very well know).

TBK-Biodiesel uses partial interestification of triglyceride oils to produce an improved biodiesel; a mixture of modified triglycerides and fatty acid ethyl esters (FAEE).

The processes eliminates glycerol as a byproduct and has a 7-8% operational cost advantage.

This is also not to mention the 15% greater yield per unit feedstock.

Want to batch it up and see for yourself?

Get in touch with me, and I'll put you in touch with Janos Thesz, the main proprietor.

Working Toward Sustainable Biofuel Production

Andrew J. Blair |  blairaj@gmail.com  | Here is our facebook page: |
http://www.facebook.com/pages/TBK-Biodiesel/136651419701991

http://algaedieseltrm.blogspot.com/2009/09/tbk-biodiesel-plans-to-conduct.html

 

01/01/2011

Hit Counter

 

PetroDiesel BioDiesel

 

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Algae BioFuel Web Site

Sandy Reifler | Houston TX | american allergy supply | americanallergy@yahoo.com

TBK BioDiesel Co-Inventor Janos Thesz  HUNGARY |  thesz@t-online.hu 

Janos Thesz (the "T" in TBK) holds two fuel samples:
Left: Dark colored Conventional Biodiesel
Right: Light colored TBK Biodiesel

Traditional BioDiesel

VS TBK-BioDiesel

 

TBK BioDiesel Process Technical Specs Web Page

Incorporation of TBK-Biodiesel into the nation’s fleet of heavy-duty diesels trucks can reduce Nitrogen Oxides (NOx) Emissions and Smoke.

Engine Emission Test Results Click Here !!TBK-BD KTI Analysis of the Full Load Test Procedure. Engine Power, Engine Torque, Fuel Consumption, NOx, HC, CO, and Smoke Values Graphs.
 

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USE OF FUELS OR FUEL ADDITIVES BASED ON TRIGLYCERIDES OF MODIFIED STRUCTURE AND PROCESS FOR THEIR PREPARATION

Abstract of HUNGARY Patent WO2008096187

The invention is directed to the use of triglycerides of modified structure, mostly known per se, as fuels, combustibles, or fuel and/or combustible additives, and to the fuels comprising them. In the description and in the claims the expression "fuel" means liquid motor propulsion materials and/or liquid combustibles. In addition, the invention is directed to new procedures for the simple, economical and environment protecting preparation of the triglycerides of modified structure and/or the mixtures comprising them, and at the same time the glycerol produced in the known procedures in large amounts can be utilized. 

Publication number: WO2008096187 
Publication date: 2008-08-14 
Inventor: THESZ JANOS (HU); BOROS BELA ISTVAN (HU); KIRALY ZOLTAN (HU) 
Applicant: THESZ JANOS (HU); BOROS BELA ISTVAN (HU); KIRALY ZOLTAN (HU) 
Classification: 
- international: C10L1/02; C10L1/18; C10L10/14; C10L1/00; C10L1/10; C10L10/14; 
- European: 
Application number: WO2008HU00013 20080205 
Priority number(s): HU20070000128 20070206; HU20070000187 20070301; HU20070000281 20070416

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TBK BioDiesel Power Point Presentation 880KB

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Left

Transesterification

Right 

Partial Interestification

BioDiesel with 10% Glycerine TBK-BioDiesel
Canola Oil + Methanol Canola Oil + Ethyl Acetate
USE OF FUELS OR FUEL ADDITIVES BASED ON TRIGLYCERIDES OF MODIFIED STRUCTURE AND PROCESS FOR THEIR PREPARATION

PATENTS

Patented: Hungary: P 07 00187

Patented: South Africa:  2009/06088

Patent Pending: 
Australia: 2008212642
Brazil: PI 0807093-8
Indonesia: W- 00200902180
India: 3123/KOLNP/2009
European Union / Asia: 200970734
Malaysia: PI 200 93269
South Korea: 10-2009-7018701
Ukraine: 200909144
USA: 12/525,812

Slide 1

Illustrates very vividly the difference between traditional BioDiesel and TBK-BioDiesel:

On the left, I am holding the crude reaction product of a laboratory BioDiesel batch: the lower glycerol phase is lost for fuel purposes, the upper BioDiesel phase requires washings, stripping of methanol surplus, etc.

On the right, I am holding the TBK-BioDiesel product after separation of catalyst and stripping of surplus transesterifying reagent, manufactured from the SAME amount of starting canola oil, so that everyone can see that we get 10-15% more fuel out of the precious starting triglyceride oil.

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Slide 2 illustrates my calculations (some most insignificant items, such as neutralizing acids -- costing less than 1 €/t fuel produced, etc. -- have been omitted in both cases). One can see that in terms of production costs we are approximately. 8% cheaper, but one should also keep in mind that owing to incorporation of the transesterifying agent into TBK-BioDiesel, in each and every case we get a 10-15% increase in fuel mass from the same quantity of oil feedstock (which is "scarce") as compared to BioDiesel processes, so the profit content of this extra mass is added to the "usual" profit content of the fuel, thus yielding 10-15% EXTRA profits to the manufacturer. So in terms of profit we are ALWAYS 10-15% above traditional BioDiesel producers, even if production costs/selling prices were the same for both fuels. Even if you deduct the "hypothetical" selling price of the 128 kg of crude glycerol/t BioDiesel produced in the Lurgi process, we are still € 43/t product more economical. Please note here that additional costs of sewage and glycerol treatment/storage etc. of the Lurgi process have not been included.

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Slide 3 depicts viability of TBK-BioDiesel in terms of profits (which, after all, is the main interest of any one producer). With the above indicated feedstock/product price ratio and adding the "extra" profit to "normal" profit in the case of TBK-BioDiesel we attain almost 21% profits, whereas BioDiesel producers can show up 10% profits, or 12% if we take into account indicated crude glycerol selling prices. An additional cost effective "knack" of our process is the way we make use of oil residues of pressed cakes (usually with still 7-9% oil content): we can extract them with ethyl acetate itself (as it is miscible with oils, contrary to methanol/ethanol) and after addition of catalyst to this mixture our reaction is started. (So we can omit the not so cheap "hexane-extraction" step, improving on economics as against traditional BioDiesel processes. This has not been taken into account in our calculations either.)

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Rapeseed / Canola

Rapeseed oil is a primary source of raw oil feedstock in Europe for biodiesel production.


Rapeseed oil produces 1000 KG oil/Hectare compared to soybean of 375 KG oil/hectare. Oil Palm produces the most at a huge 5000 KG/Hectare.

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Chemical Analysis Rapeseed Oil used in Traditional BioDiesel Fuel B100

VS

TBK BioDiesel Chemical Analysis using Rapeseed Oil + Ethyl Acetate

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Gentlemen, 
This is (Mr) Janos THESZ from Budapest, Hungary, co-inventor of "TBK-Biodiesel", a novel, really 100% "renewable" fuel ("TBK" has been coined from the initials of the three inventors: Thesz, Janos - Boros, Bela - Kiraly, Zoltan). To rouse your interest, please let me briefly touch upon the subject so that you can decide for yourselves whether it could be rewarding for you to collaborate with us on the introduction of this novel combustible.

Traditional BioDiesel Process

Triglycerides

+

Methanol

>>>

10% Glycerol

+

90% "BioDiesel"  FAME

Fatty Acid Methyl Esters

As we all (should) know, traditional BioDiesel (BD, "FAME") is NOT a totally green fuel on account of its "methanolic" part, as methanol is fossil-derived (produced via oxidation of methane). Nor is the so-called second generation biodiesel (according to e.g. the Finnish "NExBTL" process) a really renewable fuel, as the hydrogen of the process is manufactured industrially through the oxidation of propane/butane, again fossils, whose very replacement should be the sole concern of a really green economy.

TBK BioDiesel Process

Triglycerides + Methyl Acetate >>>

Modified Triglycerides (Partially Acetylated)

+

Fatty Acid Methyl Esters 

FAME

or

TBK Biodiesel made from 100% Renewable green chemicals

Triglycerides from Plant Oil or Algae Oil + Ethyl Acetate from Cellulosic Ethanol >>>

Modified Triglycerides (Partially Acetylated)

+

Fatty Acid Ethyl Esters 

FAEE

What we do is a partial transesterification ("interesterification") of naturally occurring triglycerides with alkyl (ethyl) esters of short-chain fatty acids (acetic), whereby we get a mixture of modified triglycerides with reduced molecular masses (that is, with reduced viscosities) and the alkyl esters of displaced fatty acids: 

(Our patent is pending. Application no.: PCT/HU 2008/000013, publication no.: WO2008096187).

The scheme depicts a 33 1/3 % exchange of long chains for short ones, but depending on the viscosity to be attained, further replacement of long chains is to be effected. So there is no glycerol formation, no washings, no sewage, but each and every atom of the biomass is utilized for fuel purposes.

We get an extra 10% mass of fuel out of a given amount of feedstock after the exchange of each third of the original (long) chains (that is, we require 10 or so % less arable land to produce a given amount of fuel than in the case of traditional BD).

The internal oxygen content of our fuel is about 30% higher than that of present biodiesel, affording better combustion properties, better emission profile, less soot, etc.

Moreover, in every case our product has a lower iodine-number than the corresponding biodiesel (owing to "dilution" of double-bonds), yielding greater resistance to oxidative degradations.

We have improved cold-properties (on account of the presence of a reduced molecular mass triglyceride), our volumetric energy density is 4-5% higher than that of present biodiesel, and so on.

Our production costs are lower, we can utilize glycerol-wastes of traditional BD processes as feedstock, we can work in traditional BioDiesel plants, etc.

So our stuff has half a dozen or so such merits, which considered even individually, should call for the immediate replacement of traditional "Biodiesel". And to top it all, our transesterifying agent ethyl acetate is a 100% green reagent -- manufactured for example through dehydrogenation of fermentation ethanol. 

So such being the case, our combustible is the only real 100% bio (green) substitute of petrodiesel to date, and as such may I draw your kind attention to it, as your esteemed company has been a vanguard in the introduction of biofuels. We have some preliminary motor test results, but the complete evaluation and subsequent standardization of our fuel would require sources we do not possess at the moment, so we are thinking of cooperating with a long-time player in the field, aiming at mutual benefits. 

I am attaching some data on the economics of our fuel as compared to the well-known German "Lurgi-process" for traditional Biodiesel.

Restpectfully yours,

J. Thesz

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Folks! See our PCT/HU 2008/000013 patent application.

We transesterify (or rather: interesterify) triglycerides with alkyl-esters of short-chain fatty acids (preferably with 100% bio-derived ethyl-acetate from ethanol), BUT only partially, whereby we get a mixture of modified triglycerides (with 50-70% newly introduced short chains), with reduced molecular masses, that is, with greatly reduced viscosities, and alkyl (ethyl) esters of displaced long chain fatty acids (that is, traditional biodiesel). 
There is no glycerol formation, but each and every atom of the biomass triglyceride is turned into fuel, yielding 15-20% more combustible out of a given amount of feedstock! 
(In other words: you need 15-20% LESS arable land to produce a given volume of biofuel. Most important issue these days.). 
No washings, no sewage, but 30% greater internal oxygen content, better emission profile, less soot, greater torque, lowered iodine number, better cold-properties, etc. 
And all this with lower production costs. 
To date ours is the ONLY really 100% renewable petrodiesel substitute (as the methanolic part of BD comes from methane, that is, a fossil). Well?

Posted by: Janos THESZ | thesz@t-online.hu 

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Breaking News!  7/2010

New Engine Emission Test Results with TBK-BioDiesel Click Here

80% less Smoke and Soot

Less Nitrogen-Oxides NOx

Much less Unburnt HydroCarbons HC in the exhaust than in PetroDiesel

 

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Breaking news!  1/30/2008  wiley library pdf

http://onlinelibrary.wiley.com/doi/10.1111/j.1365-313X.2008.03442.x/full

Quote from The Plant Journal (2008) 54, 593–607   

Plant triacylglycerols as feedstocks for the production of biofuels

Timothy P. Durrett , Christoph Benning  and John Ohlrogge ,*

1Departments of Plant Biology, and 2Biochemistry and Molecular Biology, Michigan State University, East Lansing, MI 48824, USA


"Acetyl TAGs are a modified TAG with a short two-carbon acetyl group rather than a longer acyl chain at the sn-3 position. This structure results in an oil of lower viscosity that has the potential to directly replace No. 4 diesel (a heavier grade). These unusual triacylglycerols are abundant in the seeds of some plant species, such as members of the genus Euonymus where they can form up to 98% of the seed oil. As with Cuphea, these species are not currently suitable for development as oilseed crops. Therefore, the transfer of enzyme(s) necessary for acetyl TAG production has been explored. To this end, a type 1 diacylglycerol transferase (DGAT1) involved in the production of acetyl glycerides has been isolated from developing seeds of Euonymus alatus (Milcamps et al., 2005). However, as with the previous examples, the heterologous expression of EaDGAT1 failed to yield high levels of acetyl TAGs." (Page 601-602, section "Direct use of plant oils as fuels", thus setting the target for genetic modification of plant oils).

Now, contrary to the (temporary) failure of geneticists, that is exactly what we have attained via a chemical "pathway", protecting the ensuing fuel in our patent application. (If we have two acetyl groups besides the one retained original long chain, viscosity is further lowered, so No. 2 diesel can be directly replaced by this modified triglyceride.)

Also, please note that in the above cited paper researchers indicate a strong correlation between iodine number and NOx emissions of a plant-oil based fuel. Owing to iodine-number reduction in TBK-BD fuel, we have every reason to predict that our stuff will have much reduced values in this respect as well, causing our fuel to surpass all petro-diesel emission parameters (contrary to conventional BD, whose NOx emission is inferior to petro-diesel).

 

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"Global Warming"  Drive with USA Algae Grown TKB-BioDiesel Fuel


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"Global Warming"  Drive with USA Algae Grown TKB-BioDiesel Fuel

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04/21/2012