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PEMANFAATAN BIOFUEL
SEBAGAI BAHAN BAKAR
ALTERNATIF
Unggul Priyanto
PTPSE-BPPT
World Peak-Oil & Proyeksi Produksi Indonesia
UNCERTAINTY DEPLETION
Potensi Energi Fosil Tahun 2005
19,3 miliar ton
185.8 TSCF
9.1 miliar
barel*)
CADANGAN
146132 juta ton58 miliar tonBatubara
622.95 TSCF384.7 TSCFGas
23
387 juta
barel
86.9 miliar
barel
Minyak
RASIO
CAD/PROD
(TAHUN)
PRODUKSI
SUMBER
DAYA
JENIS
ENERGI
FOSIL
*) Termasuk blok Cepu
9.29 GW
4.80 kWh/m2/hari
49.81 GW
0.45 GW
27.00 GW
75.67 GW
SETARA
* Hanya di daerah Kalan - Kalbar
24.112 ton* e.q. 3 GW
untuk 11 tahun
Uranium (Nuklir)
0.0005 GW9.29 GWTenaga Angin
0.008 GW-Tenaga Surya
0.3 GW49.81 GWBiomass
0.084 GW0.45 GWMini/Micro Hydro
0.8 GW219.00 juta BOEPanas Bumi
4.2 GW845.00 juta BOETenaga Air
KAPASITAS
TERPASANG
SUMBER DAYA
ENERGI
NON FOSIL
Potensi Energi Non Fosil Tahun 2005
Kebijakan Energi Nasional
Energy Targets 2025 based on Presidential Decree 5, 2006
Nuclear
Biomass
Hydro
Solar
wind
Coal
Liquifaction
Gas
30%
Coal
33%
Oil
20%
Biofuel 5%
Geothermal 5%
others
7%
Biofuel will become at least 5%
of the total National Energy MIX 2025
Bio-fuel 5 %
Biomass, Nuclear,
Hydro, Solar, Wind 5 %
Coal Liquefaction 2 %
Geothermal 5 %
STRATEGI TRIPLE TRACK
DALAM KERANGKA PENGEMBANGAN BBN
Strategi
Triple
Track
Meningkatkan
pertumbuhan ekonomi
Menurunkan jumlah
pengangguran
Mengurangi
kemiskinan
P
E
N
G
E
M
B
A
N
G
A
N
B
B
N
Pro-Growth
Pro-Job
Pro-Poor
PEMANFAATAN BIOFUEL
SEBAGAI ENERGI ALTERNATIF
In accordance with type of plant it is made of and the
way it is processed , there are three types of biofuel
namely ,
1. Bio Ethanol
2. Bio Diesel
3. Pure Plant Oil
Definitions & Types
Biofuel
Biofuel didefinisikan bahan bakar hayati, dari
tumbuh-tumbuhan atau hewani.
The chemical and physical properties of biofuel
closely resemble to those of fossil fuel.
5-20%
Crude bio-oil
Biodiesel
Solar/ diesel oilBioSolar
Diesel Engine: car, Genset
Coconut
palm Jathropa
PURE PLANT OIL(PPO ) and BIODIESEL
Raw materials for Biofuel
BIOETHANOL
Methanol+
Cassava mollases
Hydrolysis + Fermentation
Bioethanol ( 9% )
Dihedration
Bioethanol ( FG )
Gasolin Engine
PremiumBioPremiu
m
5-20%
Lignoselulosa
Pure Plant Oil
diesel oil
Development of Bioethanol plant at BPPT
Development and engineering of prototype plant for bioethanol at BPPT is carried out in
Balai Besar Teknologi Pati ( Center for Cassava Technology ) in ,Sulusuban , Lampung
This center has carried out research ,
development & engineering for application of
bioethanol as afuel since almost a quarter of
century ago
Bioethanol Plant with Cassava as
raw material
Hydrolysis
unit
Fermentation
unit
Distilation
unit
Dehydration
unit
Mashing
unit
Pengolahan
Bahan baku
Proses
Hidrolisis
Proses
Fermentasi
Proses
Distilasi
bubur
Ubi kayu
Gula
Pereduksi
(Glukosa)
Ubi kayu
Bioetanol
10 %
Bioetanol
95-96 %
Proses
Dehidrasi
FGE
(99,5%)
Molasses
Tebu
Proses Produksi FGE
Enzim amilase
Khamir
TahapanTahapan prosesproses ::
Pretreament :
Pencucian, penghancuran
Hidrolisis secara enzimatis (enzim amilase)
pati terkonversi menjadi gula sederhana
Fermentasi :
Menggunakan Khamir
Konversi gula menjadi bioetanol
Proses : batch
Semi sinambung
Sinambung
Distilasi :
Bioetanol 9 ~ 13% Bioetanol 95 %
Dehidrasi :
Bioetanol 95% Bioetanol > 99,5%
Bahan bergula
Bahan berpati
Biomass
Cellulose
+
Hemicellulose
+
Lignin
Hydrolysis
glucose
Xylose
Fermentation
Crude
Ethanol
Ethanol
Lignin
+
Waste
Fermentasi Etanol dari Bahan Berselulosa
Masalah :
• Mikroba yang umum digunakan (yeast) hanya mampu
memfermentasi glukosa menjadi etanol tapi tidak untuk
Xylose
Perlu dicari mikroba baru yang mampu
• Ikatan antara cellulose, hemicellulose dan lignin sukar
Dihidrolisis (dipecahkan) secara enzimatis Proses mahal
Perolehan etanol dari berbagai bahan mentah
*) 2½ kali panen per tahun.
781212562,5*)Ubi jalar
450018025Singkong
50256775Tebu
Liter/ha/thnLiter/ton
Perolehan alkohol
Hasil panen,
ton/ha/thn
Sumber
karbohidrat
Konversi Biomasa Menjadi Bioetanol
4:1250500Tetes 1000
12:190120-160Sagu 1000
2.5:1400600-700Jagung 1000
8:1125150-200Ubi Jalar 1000
6.5:1166.6250-300Ubi Kayu 1000
Biomasa
:
Bioetanol
Jumlah Hasil
Bioetanol (L)
Kandungan
Gula (Kg)
Biomasa (Kg)
27,3827,3831,0331,0331,2431,2430,3930,39Fuel ConsumptionFuel Consumption
(L/jam)(L/jam)
180418041393,81393,81913,31913,31856,11856,1Force (N)Force (N)
40,0940,0930,9730,9742,5242,5241,2341,23Power (kW)Power (kW)
PertamaxPertamaxPremiumPremiumGasoholGasohol EE--2020GasoholGasohol EE--1010Bahan BakarBahan Bakar
Pengujian
dalam
keadaan
“idle”
2.002.041.28Nox (gr/km)
0.400.330.38THC (gr/km)
5.773.105.00CO (gr/km)
PertamaxPertamaxGasohol EGasohol E--1010PremiumPremiumParameterParameter
HasilHasil UjiUji EmisiEmisi KendaraanKendaraan BermotorBermotor
Lab Scale biodiesel
production (400 L)
Engineering design and fabrication of Biodiesel pilot plant , capacity
1.5 ton /day(Modularised, skid mounted and movable)
EPC Pilot Plant Biodiesel
capacity 8 ton/ day
EPC Pilot Plant Biodiesel
Cap. 3 ton/day , for field
trial in Desa Mandiri
Basic Design and Engineering
Biodiesel Plant Cap. 100 ton/ day
Development of BioDiesel Plant at BPPT
Development of prototype plant for Biodiesel are carried out step by strep at BPPT
Coops BPPT – Pemda
Riau , targeted operation
Dec 2006
Mechanism of
Transesterification Reaction
6.5 Kg
Glycerin
58 Kg
Biodiesel
0.60Kg
NaOH
6.78 Kg
Alcohol
60 Kg Oil
CH2-OH
CH2-OH
CH-OH
glycerol
CH2-OOC-R1
CH -OOC-R2
CH2-OOC-R3
+3R’OH
R1-COO-R’
R2-COO- R’
R3-COO- R’
+
Catalyst
At Temp
60 to 70˚C
Triglyceride + Alcohol Esters +
Rantai Produksi Biodiesel
Preparation
Washing
Distillation
Purification
CPO/CPO/
JarakJarak
Methanol
Katalis
Methanol
Produk
Drying
Glycerol
Produk samping
Trans-
esterification
BIODIESEL
Pabrik
Ekstraksi
Jarak
Pabrik
Kelapa
Sawit
Perkebunan Ekstraksi Pabrik Biodiesel
Application of Biodiesel for Transportation System
Product spesific
Test
socialization Laboratory TestRoad Test
Process production
& Automation
Product
Compliance to SNI
Various raw materials :
CPO standard (FFA < 5 %)
CPO off grade (FFA 5-20 %)
Waste CPO (FFA 20-70 %)
PFAD, CFAD (FFA > 70 %)
RBDPO
RBDPS
Used Cooking Oil
Jatropha Oil
Laboratory and field testing on automotive systems at BPPT
Road test for B-30 with range
distance of 2000 km and
20.000 km
Operational Test & Evaluation
carried out using B-10 for 23
BPPT operational bus , since
2004
Palm nuts
Palm Oil
Milling Plant Crude
Palm Oil
(CPO)
CPO Refinery
Plant
DIESEL Power
Plant
Refined
Palm Oil
as Fuel
Process Heat
Waste:
Palm nut shell
Palm kernel cake
By product : FFA (5-6% of
CPO fed) > for sale
Pemanfaatan Minyak Sawit/Pure Palm Oil sebagai
Bahan Bakar
Uji Coba Pengaruh Kecepatan Mesin terhadap Power
mesin untuk PPO 10% vs Solar
* Di uji oleh BTMP-BPPT
Attachment 1a - Performance Comparison
20
25
30
35
40
45
50
55
60
65
70
1250 1500 1750 2000 2250 2500 2750 3000 3250 3500 3750 4000 4250
Engine Speed (rpm)
Power(PS)
34
36
38
40
42
44
46
48
50
52
54
Torque(kg.m)
Power-NABATI. Power-SOLAR Torque-NABATI. Torque-SOLAR.
Uji Coba PPO 50-80% di PLTD
Medium Speed
LOKASI PEMBANGKIT: PLTD TALANG PADANG
Data Teknis.
Daya terpasang : 270 KW
Cylinder : 6
Cylinder bore : 200 mm
Stroke : 240 mm
Firing order :1-5-3-6-2-4-1
Engine speed : 750 rpm
Operation year : 1982
Spesific Fuel Consumption vs KWh pada Uji Coba di PLTD
Talang Padang
Pengaruh Break Horse Power Terhadap Spesific Fuel Consumption
0.3215
0.293
0.295
0.3205
0.297
0.3
0.304
0.32
0.29
0.295
0.3
0.305
0.31
0.315
0.32
0.325
90 110 130 150 170 190 210 230
(Kwh)
L/Kwh
Solar 100%, T= 40 C, visk= 3,86 cst
Solar 90% + PPO 10%, T=40 C, Visk= 4,68 cst
Solar 50% + PPO 50%, T= 70 C, Visk= 5,8 cst
Hasil Test Emisi pada PLTD
Gas
Analizer
-10,4212.93%
Karbon
Dioksida (CO2)
4
Gas
Analizer
-2,93.46ppm
Karbon
Monoksida (CO)
3
Spektro
fotometrik
8001,160.53mg/m3Sulfur Dioksida
(SO2)
2
Spektro
fotometrik
100032.626.5mg/m3Nitrogen
Dioksida (NO2)
1
MENLH/3/1
995
PPO
50%
HSD
Kep-13
Metoda
Analisa
Alat
Buku Mutu
Mesin 3
Satuan
Parameter
Analisis
No
Uji Coba PPO sebagai
Bio-kerosene
Kompor Sumbu Kompor Tekan
Blending PPO 10%, Kerosin 90% Blending PPO 75%, Kerosin 25%
KENDALA
Alternatif pembiayaan
Anggaran Pemerintah (Pusat
& Daerah); Investasi
asing
Tidak masuknya
Jarakpagar dalam
skema pembiayaan
perbankan
6. PENDANAAN
Daya saing industri
lebih baik
Diversifikasi ke produk non
subsidi & subsidi silang
untuk BBM bersubsidi
Fluktuasi harga CPO di
atas MOPS;
5. PASAR & NIAGA
Memberi iklim investasi
lebih baik;
memberi nilai
tambah di dalam
negeri
Industri pupuk & methanol
baru (termasuk di LN)
Pupuk & Methanol (untuk
Bio-diesel)
4. SARANA &
PRASARANA
Daya saing industri
lebih baik
Fasilitasi agar industri hilir
mengembangan hulu; re-
stripping process,
diversifikasi produk,
green diesel
Industri tidak terintegrasi
hulu-hilir; pilihan
teknologi proses &
produk
3. TEKNOLOGI &
BUDIDAYA
Memberi iklim investasi
lebih baik;
memberi nilai
tambah di dalam
negeri
Proses perijinan dibatasi
waktu penyelesaiannya
Tiadanya jadwal
penyelesaian proses
perijinan perolehan
lahan
2. LAHAN
KETERANGANUSULANKENDALAKELOMPOK
Thank You….

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Biofuel sbg bhn_bakar_alternatif3

  • 1. PEMANFAATAN BIOFUEL SEBAGAI BAHAN BAKAR ALTERNATIF Unggul Priyanto PTPSE-BPPT
  • 2. World Peak-Oil & Proyeksi Produksi Indonesia UNCERTAINTY DEPLETION
  • 3. Potensi Energi Fosil Tahun 2005 19,3 miliar ton 185.8 TSCF 9.1 miliar barel*) CADANGAN 146132 juta ton58 miliar tonBatubara 622.95 TSCF384.7 TSCFGas 23 387 juta barel 86.9 miliar barel Minyak RASIO CAD/PROD (TAHUN) PRODUKSI SUMBER DAYA JENIS ENERGI FOSIL *) Termasuk blok Cepu
  • 4. 9.29 GW 4.80 kWh/m2/hari 49.81 GW 0.45 GW 27.00 GW 75.67 GW SETARA * Hanya di daerah Kalan - Kalbar 24.112 ton* e.q. 3 GW untuk 11 tahun Uranium (Nuklir) 0.0005 GW9.29 GWTenaga Angin 0.008 GW-Tenaga Surya 0.3 GW49.81 GWBiomass 0.084 GW0.45 GWMini/Micro Hydro 0.8 GW219.00 juta BOEPanas Bumi 4.2 GW845.00 juta BOETenaga Air KAPASITAS TERPASANG SUMBER DAYA ENERGI NON FOSIL Potensi Energi Non Fosil Tahun 2005
  • 5. Kebijakan Energi Nasional Energy Targets 2025 based on Presidential Decree 5, 2006 Nuclear Biomass Hydro Solar wind Coal Liquifaction Gas 30% Coal 33% Oil 20% Biofuel 5% Geothermal 5% others 7% Biofuel will become at least 5% of the total National Energy MIX 2025 Bio-fuel 5 % Biomass, Nuclear, Hydro, Solar, Wind 5 % Coal Liquefaction 2 % Geothermal 5 %
  • 6. STRATEGI TRIPLE TRACK DALAM KERANGKA PENGEMBANGAN BBN Strategi Triple Track Meningkatkan pertumbuhan ekonomi Menurunkan jumlah pengangguran Mengurangi kemiskinan P E N G E M B A N G A N B B N Pro-Growth Pro-Job Pro-Poor
  • 8. In accordance with type of plant it is made of and the way it is processed , there are three types of biofuel namely , 1. Bio Ethanol 2. Bio Diesel 3. Pure Plant Oil Definitions & Types Biofuel Biofuel didefinisikan bahan bakar hayati, dari tumbuh-tumbuhan atau hewani. The chemical and physical properties of biofuel closely resemble to those of fossil fuel.
  • 9. 5-20% Crude bio-oil Biodiesel Solar/ diesel oilBioSolar Diesel Engine: car, Genset Coconut palm Jathropa PURE PLANT OIL(PPO ) and BIODIESEL Raw materials for Biofuel BIOETHANOL Methanol+ Cassava mollases Hydrolysis + Fermentation Bioethanol ( 9% ) Dihedration Bioethanol ( FG ) Gasolin Engine PremiumBioPremiu m 5-20% Lignoselulosa Pure Plant Oil diesel oil
  • 10. Development of Bioethanol plant at BPPT Development and engineering of prototype plant for bioethanol at BPPT is carried out in Balai Besar Teknologi Pati ( Center for Cassava Technology ) in ,Sulusuban , Lampung This center has carried out research , development & engineering for application of bioethanol as afuel since almost a quarter of century ago Bioethanol Plant with Cassava as raw material Hydrolysis unit Fermentation unit Distilation unit Dehydration unit Mashing unit
  • 11. Pengolahan Bahan baku Proses Hidrolisis Proses Fermentasi Proses Distilasi bubur Ubi kayu Gula Pereduksi (Glukosa) Ubi kayu Bioetanol 10 % Bioetanol 95-96 % Proses Dehidrasi FGE (99,5%) Molasses Tebu Proses Produksi FGE Enzim amilase Khamir
  • 12. TahapanTahapan prosesproses :: Pretreament : Pencucian, penghancuran Hidrolisis secara enzimatis (enzim amilase) pati terkonversi menjadi gula sederhana Fermentasi : Menggunakan Khamir Konversi gula menjadi bioetanol Proses : batch Semi sinambung Sinambung Distilasi : Bioetanol 9 ~ 13% Bioetanol 95 % Dehidrasi : Bioetanol 95% Bioetanol > 99,5% Bahan bergula Bahan berpati
  • 13. Biomass Cellulose + Hemicellulose + Lignin Hydrolysis glucose Xylose Fermentation Crude Ethanol Ethanol Lignin + Waste Fermentasi Etanol dari Bahan Berselulosa Masalah : • Mikroba yang umum digunakan (yeast) hanya mampu memfermentasi glukosa menjadi etanol tapi tidak untuk Xylose Perlu dicari mikroba baru yang mampu • Ikatan antara cellulose, hemicellulose dan lignin sukar Dihidrolisis (dipecahkan) secara enzimatis Proses mahal
  • 14. Perolehan etanol dari berbagai bahan mentah *) 2½ kali panen per tahun. 781212562,5*)Ubi jalar 450018025Singkong 50256775Tebu Liter/ha/thnLiter/ton Perolehan alkohol Hasil panen, ton/ha/thn Sumber karbohidrat
  • 15. Konversi Biomasa Menjadi Bioetanol 4:1250500Tetes 1000 12:190120-160Sagu 1000 2.5:1400600-700Jagung 1000 8:1125150-200Ubi Jalar 1000 6.5:1166.6250-300Ubi Kayu 1000 Biomasa : Bioetanol Jumlah Hasil Bioetanol (L) Kandungan Gula (Kg) Biomasa (Kg)
  • 16. 27,3827,3831,0331,0331,2431,2430,3930,39Fuel ConsumptionFuel Consumption (L/jam)(L/jam) 180418041393,81393,81913,31913,31856,11856,1Force (N)Force (N) 40,0940,0930,9730,9742,5242,5241,2341,23Power (kW)Power (kW) PertamaxPertamaxPremiumPremiumGasoholGasohol EE--2020GasoholGasohol EE--1010Bahan BakarBahan Bakar Pengujian dalam keadaan “idle” 2.002.041.28Nox (gr/km) 0.400.330.38THC (gr/km) 5.773.105.00CO (gr/km) PertamaxPertamaxGasohol EGasohol E--1010PremiumPremiumParameterParameter HasilHasil UjiUji EmisiEmisi KendaraanKendaraan BermotorBermotor
  • 17. Lab Scale biodiesel production (400 L) Engineering design and fabrication of Biodiesel pilot plant , capacity 1.5 ton /day(Modularised, skid mounted and movable) EPC Pilot Plant Biodiesel capacity 8 ton/ day EPC Pilot Plant Biodiesel Cap. 3 ton/day , for field trial in Desa Mandiri Basic Design and Engineering Biodiesel Plant Cap. 100 ton/ day Development of BioDiesel Plant at BPPT Development of prototype plant for Biodiesel are carried out step by strep at BPPT Coops BPPT – Pemda Riau , targeted operation Dec 2006
  • 18. Mechanism of Transesterification Reaction 6.5 Kg Glycerin 58 Kg Biodiesel 0.60Kg NaOH 6.78 Kg Alcohol 60 Kg Oil CH2-OH CH2-OH CH-OH glycerol CH2-OOC-R1 CH -OOC-R2 CH2-OOC-R3 +3R’OH R1-COO-R’ R2-COO- R’ R3-COO- R’ + Catalyst At Temp 60 to 70˚C Triglyceride + Alcohol Esters +
  • 19. Rantai Produksi Biodiesel Preparation Washing Distillation Purification CPO/CPO/ JarakJarak Methanol Katalis Methanol Produk Drying Glycerol Produk samping Trans- esterification BIODIESEL Pabrik Ekstraksi Jarak Pabrik Kelapa Sawit Perkebunan Ekstraksi Pabrik Biodiesel
  • 20. Application of Biodiesel for Transportation System Product spesific Test socialization Laboratory TestRoad Test Process production & Automation Product Compliance to SNI Various raw materials : CPO standard (FFA < 5 %) CPO off grade (FFA 5-20 %) Waste CPO (FFA 20-70 %) PFAD, CFAD (FFA > 70 %) RBDPO RBDPS Used Cooking Oil Jatropha Oil Laboratory and field testing on automotive systems at BPPT Road test for B-30 with range distance of 2000 km and 20.000 km Operational Test & Evaluation carried out using B-10 for 23 BPPT operational bus , since 2004
  • 21. Palm nuts Palm Oil Milling Plant Crude Palm Oil (CPO) CPO Refinery Plant DIESEL Power Plant Refined Palm Oil as Fuel Process Heat Waste: Palm nut shell Palm kernel cake By product : FFA (5-6% of CPO fed) > for sale Pemanfaatan Minyak Sawit/Pure Palm Oil sebagai Bahan Bakar
  • 22. Uji Coba Pengaruh Kecepatan Mesin terhadap Power mesin untuk PPO 10% vs Solar * Di uji oleh BTMP-BPPT Attachment 1a - Performance Comparison 20 25 30 35 40 45 50 55 60 65 70 1250 1500 1750 2000 2250 2500 2750 3000 3250 3500 3750 4000 4250 Engine Speed (rpm) Power(PS) 34 36 38 40 42 44 46 48 50 52 54 Torque(kg.m) Power-NABATI. Power-SOLAR Torque-NABATI. Torque-SOLAR.
  • 23. Uji Coba PPO 50-80% di PLTD Medium Speed LOKASI PEMBANGKIT: PLTD TALANG PADANG Data Teknis. Daya terpasang : 270 KW Cylinder : 6 Cylinder bore : 200 mm Stroke : 240 mm Firing order :1-5-3-6-2-4-1 Engine speed : 750 rpm Operation year : 1982
  • 24. Spesific Fuel Consumption vs KWh pada Uji Coba di PLTD Talang Padang Pengaruh Break Horse Power Terhadap Spesific Fuel Consumption 0.3215 0.293 0.295 0.3205 0.297 0.3 0.304 0.32 0.29 0.295 0.3 0.305 0.31 0.315 0.32 0.325 90 110 130 150 170 190 210 230 (Kwh) L/Kwh Solar 100%, T= 40 C, visk= 3,86 cst Solar 90% + PPO 10%, T=40 C, Visk= 4,68 cst Solar 50% + PPO 50%, T= 70 C, Visk= 5,8 cst
  • 25. Hasil Test Emisi pada PLTD Gas Analizer -10,4212.93% Karbon Dioksida (CO2) 4 Gas Analizer -2,93.46ppm Karbon Monoksida (CO) 3 Spektro fotometrik 8001,160.53mg/m3Sulfur Dioksida (SO2) 2 Spektro fotometrik 100032.626.5mg/m3Nitrogen Dioksida (NO2) 1 MENLH/3/1 995 PPO 50% HSD Kep-13 Metoda Analisa Alat Buku Mutu Mesin 3 Satuan Parameter Analisis No
  • 26. Uji Coba PPO sebagai Bio-kerosene Kompor Sumbu Kompor Tekan Blending PPO 10%, Kerosin 90% Blending PPO 75%, Kerosin 25%
  • 27. KENDALA Alternatif pembiayaan Anggaran Pemerintah (Pusat & Daerah); Investasi asing Tidak masuknya Jarakpagar dalam skema pembiayaan perbankan 6. PENDANAAN Daya saing industri lebih baik Diversifikasi ke produk non subsidi & subsidi silang untuk BBM bersubsidi Fluktuasi harga CPO di atas MOPS; 5. PASAR & NIAGA Memberi iklim investasi lebih baik; memberi nilai tambah di dalam negeri Industri pupuk & methanol baru (termasuk di LN) Pupuk & Methanol (untuk Bio-diesel) 4. SARANA & PRASARANA Daya saing industri lebih baik Fasilitasi agar industri hilir mengembangan hulu; re- stripping process, diversifikasi produk, green diesel Industri tidak terintegrasi hulu-hilir; pilihan teknologi proses & produk 3. TEKNOLOGI & BUDIDAYA Memberi iklim investasi lebih baik; memberi nilai tambah di dalam negeri Proses perijinan dibatasi waktu penyelesaiannya Tiadanya jadwal penyelesaian proses perijinan perolehan lahan 2. LAHAN KETERANGANUSULANKENDALAKELOMPOK