1. Biodiesel from EgyptianBiodiesel from Egyptian
AlgaeAlgae
BYBY
Dr. Farouk Kamel El-BazDr. Farouk Kamel El-Baz
Prof. of Plant Biochemistry, Agric. & Biol. Res. DivisionProf. of Plant Biochemistry, Agric. & Biol. Res. Division
Former NRC Vice President & Awarded the State ofFormer NRC Vice President & Awarded the State of
Egypt Prize of Merit in Advanced TechnologicalEgypt Prize of Merit in Advanced Technological
Sciences ,2008Sciences ,2008
24. Disadvantages of Biodiesel
• The B 100 % would need engine modifications
• Relative high solubility effect
• Effect of color after prolonged contact
• Effect on rubber parts
26. • EU production at 2007, 10.3 Million Tons
• By 2020, 10 % of EU Diesel Consumption
will be from Bio sources.
• USA Plans to be the Major Producer by
2010.
Biodiesel Future Plans
27. • India Plans to produce 4 Million tons annually
• Israel Plans to produce 4-5% of Global
Requirements (4-5 Million MT)
• China Plans to increase the biodiesel
production at 2012 by 900% of that at 2007
28. Top 10 countries in terms of biodieselTop 10 countries in terms of biodiesel
potentialpotentialRankRank CountryCountry BiodieselBiodiesel
PotentialPotential
(ML)(ML)
ProductionProduction
($/L)($/L)
11 MalaysiaMalaysia 14,54014,540 0.530.53
22 IndonesiaIndonesia 75957595 0.490.49
33 ArgentinaArgentina 52555255 0.620.62
44 USAUSA 32123212 0.700.70
55 BrazilBrazil 25672567 0.620.62
66 NetherlandNetherland 24962496 0.750.75
77 GermanyGermany 20242024 0.790.79
88 PhilippinesPhilippines 12341234 0.530.53
99 BelgiumBelgium 12131213 0.780.78
1010 SpainSpain 10731073 1.711.71
29. OPPERTUNITIESOPPERTUNITIES
National and InternationalNational and International
• National recommendation for the production andNational recommendation for the production and
expansion of biodiesel from algae alongside withexpansion of biodiesel from algae alongside with
other sources of biofeul.other sources of biofeul.
•Under the Directive 2009/28/EC on the promotionUnder the Directive 2009/28/EC on the promotion
of the use of energy from renewable sources thisof the use of energy from renewable sources this
share rises to a minimum 10% in every Membershare rises to a minimum 10% in every Member
State in 2020State in 2020
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
30.
31. Biodiesel and AviationBiodiesel and Aviation
The EU initiative, labelled "The EU initiative, labelled "
European Advanced Biofuels Flight pathEuropean Advanced Biofuels Flight path""
recommend productionrecommend production of two millionof two million
tonnes of sustainably produced biofuel fortonnes of sustainably produced biofuel for
aviation by 2020aviation by 2020
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
32. Biodiesel and AviationBiodiesel and Aviation
Egyptian Aviation authorities to haveEgyptian Aviation authorities to have
national supply for biodiesel by 2020.national supply for biodiesel by 2020.
Egypt Air consumption of jet fuel is !!!!!Egypt Air consumption of jet fuel is !!!!!
Annually.Annually.
A big percent of this volume to be fromA big percent of this volume to be from
biofuelbiofuel
33. SolutionsSolutions
There is no single solution for all purposes.There is no single solution for all purposes.
One solution might be the best for oneOne solution might be the best for one
purpose.purpose.
Biodiesel can be obtained from differentBiodiesel can be obtained from different
sources; Jatropha, Jojoba, Croton, recycledsources; Jatropha, Jojoba, Croton, recycled
oils and fromoils and from AlgaeAlgae..
Different factors determine the best solutionDifferent factors determine the best solution
for certain purpose;for certain purpose; Quality, water andQuality, water and
fertile land availability, geography,fertile land availability, geography,
productivity &productivity & economyeconomy..
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
34. Quality and tests for Aviation DieselQuality and tests for Aviation Diesel
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
36. Water and Fertile landWater and Fertile land
availabilityavailability
Egypt has a limited water resourcesEgypt has a limited water resources
Recycled water from Industry andRecycled water from Industry and
Agriculture has drawbacksAgriculture has drawbacks
The cost of land reclamation in the desertThe cost of land reclamation in the desert
is increasing day by day.is increasing day by day.
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
37. GeographyGeography
((Intense sun radiation all over the yearIntense sun radiation all over the year))
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
41. 1.Short life cycle ( approx. 1-10 days)
2.Fast Growing with High productivity:-
a. Microalgae commonly double their
biomass within 24 hour
b. Biomass doubling times during the log.
phase as short as 3.5 h.
Advantages of Algae over other plants
42. 3. High photosynthetic efficiency (31 folds)
4. No competition with food crops
5. Can be cultivated with Salty water
6. Oil productivity depends on the algal
growth rate and the oil content of the biomass
43. 7. Metabolic pathways can be directed by stress
factors ( Nutrients deficiency, low or high
temperature, pH ..), to produce the required
targets.
8. High oil productivity (could reach 50-80 % of dry
weight)
9. Microalage with high oil productivities are
desired for producing biodiesal.
45. Palm Oil : 6000 L / ha / year
Algae : 20000-150000 L / ha /year
46. Superiority of microalgae in producing
biodiesel
Algae are one of the best sources of biodiesal:
1.It can produce : up to 25 times the amount
of oil per acre as soybeans
2.Up to 7-30 time greater oil than palm oil
66. Photobioreactor is more successful,
algae growth rate and productivity
are usually high than the open
ponds
67. Comparison of open and closed algaeComparison of open and closed algae
production systemsproduction systems
VariableVariable PhotobioreactorPhotobioreactor OpenOpen
PondsPonds
Area neededArea needed
5681 m5681 m22
7828 m7828 m22
Annual biomassAnnual biomass
ProductionProduction
100 000kg100 000kg 100 000kg100 000kg
Oil ProductionOil Production 137m137m33
/ Hectare/ Hectare 99 m99 m33
/ Hectare/ Hectare
Annual CO2
Consumption (Kg) 183.3 183.3
68. • This comparison is for an annual production level of
100 tons of biomass in both cases.
• Photobioreactor provide much greater oil yield /
hectare Compared with raceway ponds both
production methods consume an identical amount of
CO2
70. Microaleage can provide several different
types of renewable biofuels these include:-
1. Bio diesel derived from microalgae oil
2. Photobiologically produced biohydrogen
3. Methane produced by anaerobic digestion of
the algal biomass
72. 1. Algae strains with high productivity
were isolated and identified
73. Locally Studied Algae Species
Considered for oil production
Algae
1- Dunaliella Green
2-Scenedesmus Green
3- Chlorella Green
4- Spirulina Blue Green
75. 2. Microalgae are produced on Lab. and semi
pilot scale all year around with different
outputs:-
Pigment – antiviral – antibacterial – anticancer
–nutraceuticals – Omega 3 & Omega 6 fatty
acids, sulphtated polysaccharides, oil ……..)
81. Open ponds should have
- 10 m width
- 100 m length
- 30 cm depth
• Built in concrete blocks on a 10 cm thick sole
• A paddle wheel or rotating arm are used for
culture agitation mixing and preventing the
algal cells from settling on the bottom
84. Photobioreactors
• They can established & maintained
either indoor or outdoor. However the
outdoor is more successful because they
can utilize free sunlight
• They consist of :
1.Transparent tubes made of glass or
plastics and fixed generally in the north
– south direction to enable the maximum
light penetration
85. 2.Pumping system ( 50 cm / sec.), dosing
pump
3.Feeding vessel contain nutrient solution &
CO2
4.Harvesting pump or filter system
90. Drawbacks of PBRs
1- Oxygen poisoning –photoxidation –
damage of the cell
2- Over heating
3- Loss of transparency- light penetration
decreased.
4- Difficulty in scaling up
91. Oil percentage increaseOil percentage increase
FromFrom ToTo
55 3838
77 3838
88 5959
6.56.5 1919
Increase of oil productivity in some algae strains
StrainStrain
DunaliellaDunaliella
ChlorellaChlorella
ScenedesmusScenedesmus
SpirulinaSpirulina
93. Fatty acids (%) of total fatty acid
C8:0 Caprylic acid 1.52
C10:0 Capric acid 0.12
C12:0 Lauric acid 0.34
C14:0 Myristic acid 0.62
C16:0 Palmitic acid 31.5
C16:1 Palmitoleic acid 0.70
C16 Total 32.2
C18:1 Oleic acid 12.6
C18:2 Linoleic acid 16.46
C18:3 Linolenic 19.94
Total C18 49.0
C 20:4 Arachidonic acid 1.8
C 20:5 Timnodonic 4.8
Total C20 6.6
C 22:0 Docosanoic 10.6
Total saturated 44.7
Total mono-saturated 13.3
Total polyunsaturated 43.0
94. The fatty acid profile of Spirulina cultivated in
photobioreactors showing that palmatic C16:0,
olic (C18:1), linoleic (C18:2), linolenic (C18:3) and
arachidic acid (C22:0) were the most prevalent.
It was also clear that total saturated fatty acid
represented 44.7% of total fatty acids, compared
to total unsaturated fatty acid (56.3%)
95. The results of the present study also indicated
that fatty acids with 4 or more double bonds
[(C20:4) and (C 20:5)] represented only 6.6 % of
the total fatty acids .
96. Schenk et al. (2008) suggested that the ideal mixture of
fatty acids to be: C16:1 : C18:1 : C14:0 in the ratio of 5:
4: 1 such a biodiesel would have the properties of very low
oxidative potential.
In the present work this ratio is nearly 0.7: 12.6: 0.62
in Spirulina and 4.8: 12.9: 14.6 in Chlorella,further
processing and additives are required
98. Fatty acids Common name
%of total
fatty acids
C 14:0 Myristic acid 14.6
C 14:1 Myristoleic acid 6.2
Total C 14 20.8
C 16:0 Palmitic acid 54.3
C 16:1 Palmitoleic acid 4.8
C 16:2 Hexadecadienoic acid 1.7
Total C 16 60.8
C 18:1 Oleic acid 12.9
C 18:2 Linoleic acid 4.1
C 18:3 Linolenic acid 1.4
Total C 18 18.4
Total saturated 68.9
Total mono-saturated 23.9
Total polyunsaturated 7.2
TU/TS 0.45
99. The fatty acid profile of Chlorella cultivated in
photobioreactors showing high value (54.3%) of palmatic
acid which met the requirement of European legislation
for biodiesel.
High content (12.9 %) of Oleic acid of Chlorella fatty
acid profile may be utilized for good quality biodiesel
production
100. Acceptability of microalgal oil for biodiesel
Depending on the total unsaturation of the oil
which is indicating by
lodine value
• Not exceed 120g I2 / 100 g oilstandard of the
European union ( En 14214 ) for biodiesel of
vehicle use
• Not exceed 130 g I2 / 100 g oil for use as heating
oil ( standard 14213 )
101. • Fatty acids and Fatty Acid Methyl Ester
FAME with 4 and more double bonds are
susceptible to oxidation and this reduces their
acceptability for use in biodiesel
• In European Union separate standards exist
for biodiesel of vechicle use ( 14214) ( limit
linolenic acid and its ME to 12% ) and no
limitation exists for use as heating oil ( 14213 )
102. Our results indicated that Chlorella fatty acid profile
contain linolenic acid (1.4%) less than 12%.
103. Specification of algal oil produced at
NRC
Strains Degree of
saturation
Degree of
Unstauration
Dunaliella 18 80
Spirulina 42 43
Chlorella 70 28
Scenedesums 70 26
104. Experiment Method Result
Density, @ 15.56 o
C
Specific Gravity
API gravity @ 60 o
F
ASTMD-1298 0.8655
0.8664
31.82
Kinematic viscosity, cSt, @ 40o
C ASTM D-445 6.81
Total Sulphur, wt % ASTM D-4294 0.74
Ash content, wt% ASTM D-482 0.004
Gross heating value, kj/kg ASTM D-240 41896
Flash point ASTM D-240 96
Cetane index 38
Physical analysis of Spirulina biodiesel
105. Properties of a blend of biodiesel and solar (50%each)
compared to the standard specifications of diesel fuel
Property Diesel fuel Biodiesel/solar
blend
-Density, at 15.56 o
C
-Specific Gravity
-API gravity at 60 o
F
0.82-0.87
0.82-0.87
31-41
0.8655
0.8664
31.82
-Kinematic viscosity, cSt,
at 40o
C
≥7 6.81
-Total Sulphur, wt% ≥1.2 0.74
-Ash content, wt% ≥0.01 0.004
-Gross heating value,
kj/kg
47000 41896
-Flash point, o
C ≤55 96
Cetane number- ≤55 38
106. Distillation characteristics of the 50%
blend compared to that of solar
It seems that the volatility of the biodiesel blend
is higher than that of regular solar. Since the
10% distillation of the blend occurs at155 o
C
compared to 205 o
C in case of solar, it might be
expected that the starting ignition quality will
be better using this blend
107. Solar Biodiesel/solar blend
Distillation
Initial boiling point,o
C
10 ml
20 ml
30 ml
40 ml
50 ml
60 ml
70 ml
80 ml
90 ml
Recovery, ml
Residue, ml
Loss %
170
205
235
264
275
278
300
310
315
322
91
8
1
110
155
185
191
200
220
230
240
260
300
92
6
2
ASTM distillation results of Biodiesel/solar 50% blend
compared to Solar
108.
109. Economy for the production ofEconomy for the production of
Biodiesel from AlgaeBiodiesel from Algae
Egyptian Dutch ConsortiumEgyptian Dutch Consortium
::
National Research Center;National Research Center; Consortium PIConsortium PI
Faculty of Pharmacy, Cairo UniversityFaculty of Pharmacy, Cairo University
FOPCUFOPCU
Wageningen University and Research) WURWageningen University and Research) WUR
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
110. Wageningen University and ResearchWageningen University and Research
Pioneer algae research institutePioneer algae research institute
in Holland and Europein Holland and Europe
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
111. Faculty of PharmacyFaculty of Pharmacy
Will play role in the isolation andWill play role in the isolation and
identification of Algae bio-activesidentification of Algae bio-actives
suitable for nutraceutical purposesuitable for nutraceutical purpose
and other high cash valueand other high cash value
productsproducts
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
113. Consortium ObjectivesConsortium Objectives
Overall Objective ;Overall Objective ;
Development of a sustainable for theDevelopment of a sustainable for the
production of renewable energy sourceproduction of renewable energy source
from Energy.from Energy.
The Specific Objectives;The Specific Objectives;
Setting up a pilot production unit ofSetting up a pilot production unit of
biodiesel from algaebiodiesel from algae
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
115. Estimated ResultsEstimated Results
Production of algal oil usingProduction of algal oil using
photobioreactor and openphotobioreactor and open
ponds.ponds.
Production of Biodiesel byProduction of Biodiesel by
algal oil transestrification.algal oil transestrification.
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Biodiesel from algae; oppertuity andBiodiesel from algae; oppertuity and
challengeschallenges
116. Production of high valueProduction of high value
nutraceuticals from algae.nutraceuticals from algae.
Setting up economical demo unitSetting up economical demo unit
ready for scaling up nationally andready for scaling up nationally and
internationally.internationally.
Enhancing Egyptian capabilities forEnhancing Egyptian capabilities for
biodiesel production from Algae.biodiesel production from Algae.
U.S. Department of Energy, Alternative Fuels Data Center Website, “Biodiesel Benefits,” available at http://www.eere.energy.gov/afdc/altfuel/bio_benefits.html
U.S. Department of Energy, Alternative Fuels Data Center Website, “Biodiesel Benefits,” available at http://www.eere.energy.gov/afdc/altfuel/bio_benefits.html
U.S. Department of Energy, Alternative Fuels Data Center Website, “Biodiesel Benefits,” available at http://www.eere.energy.gov/afdc/altfuel/bio_benefits.html