cartagena, colombia jan e.g. van dam - fedepalmaweb.fedepalma.org/sites/default/files/files/m 2_3_3...
TRANSCRIPT
Oil Palm by-products as biocommodities
XVIII International Oil Palm conference
Cartagena, Colombia
Jan E.G. van Dam
25-09-2015
Outline and Introduction
FBR-WUR
Biobased economy developments in EU
Markets for biomass (near future)
● 10-30 Mt pellets
● Prices 130-170 € /ton pellet (@Rotterdam)
Biomass sourcing and imports of bio-commodities
Oil palm by-products
● Challenge pellets from oil palm residues
● Quality price
Outline
Application options Palm Oil by-products
Energy / biomass exports
Biorefinery technologies / process and product innovation
Commercial interests / investors
Markets development
Wageningen University & Research centre
Domain: healthy food & living environment
Extensive international network
Forty locations, main hubs in Brazil, China and Chile
…to explore the potential of nature to improve the quality of life…
Wageningen UR
Research
Top 3 in our domains
Top 100 worldwide in university ranking
Exploitation and valorisation of research
Education
> 11,000 students
> 6,000 faculty and staff
Turnover € 710 million
https://www.wageningenur.nl/
Organisational structure WageningenUR
Wageningen International
IMARES
Wageningen Academy
RIKILT
Food & Biobased Research
Livestock Research Central
Veterinary Institute
Alterra LEI Centre for
Development Innovation
Plant Research International Applied Plant
Research
Agrotechnology & Food Science
Animal Sciences Environmental Sciences
Social Sciences Plant Sciences
Agrotechnology & Food Sciences
Group
Animal Sciences Group
Environmental Sciences Group
Social Sciences Group
Plant Sciences Group
Supervisory Board
Executive Board
Concern Staff Facilities & Services
Wageningen University
Research Institutes
Food & Biobased Research
Agrotechnology & Food Sciences
Agrotechnology & Food Sciences
Group
Food & Biobased Research
Market oriented R&D approach
Connection with Wageningen University
Up-scaling: from lab to pilot
From idea to processes and products
Biobased Products
Biorefinery
● Fresh biomass
● Lignocellulosic crops
● Aquatic biomass
Biobased chains and logistics
● Chain design
● Policy advice
EU Policy for sustainable development
HORIZON 2020
● Long term solutions
● Combat climate change
● Renewable resources & bioeconomic growth
● CO2 neutral, abate greenhouse gas emissions
● Imports of biomass
● Brazil, Malaysia, Ukraine, Colombia..
● Bio-commodities
EU political debate
Thermal power CO2 reduction
● Electricity and heat (co-firing ~20% pellets)
● Gasification and combustion
International Energy Agency (IEA) WG Task 43 (bioenergy)
Int. biomass sourcing and trading (IBST)
World bioenergy association (WBA)
Biomass to chemicals, materials and 2nd generation fuels
Constraints and potential supply
Biobased economy developments
Global Biomass market developments
New Biocommodities
● Raw materials, products or intermediate products that are
fungible and being traded in bulk volumes world-wide.
● Consist of selected parts of a crop or extracted and derived
components. The composition is well known and defined.
● Should be easily tradable and storable.
● Examples: wood/pellets, bioethanol/lactic acid, FAME, CPO, soy
beans/soy oil, wheat/flower,...
Sourcing and sustainability of supply
Biomass handling and storage
Biomass to power and materials
Transition to the bio-based economy
• Big challenge to make enough biomass available
• How to change to the bio-based economy sustainably?
• There is not one strategy………..
• Required: sophisticated combination of resources and processes leading to defined value added products; precision agriculture;
• Mobilizing biomass.... no waste!
Food
Biomass production
1st Agro logistics Food pretreatment
Food production Conversion
Non-
food: • Feed
• Compost
• Waste
management .
Agri sources Agro-food production By products & waste
Logistics& storage production Imports
Conversion
Production
$
$
$
Biobased
Products • Biobased
materials
• Green
chemicals
• Bio-fuels
• Bio-energy
Production Performance materials Base&platform chemicals Performance chemicals Bio Energy
Pre-treatment & conversion
Bio-based economy: linking of markets
EU Biobased economy
Policy intentions:
Market demands 650 Mt (in EU-27) for 2020
Up to 50-100 Mt biomass trade imports
● Heat and electricity lignocellulose
● 2nd generation
● Ethanol
● Oils for biodiesel
● Yet fuel
● Chemicals (not included)
Bio-based economy Opportunities
• Make sufficient renewable resources available for
– food
– feed
– energy
– materials
– chemical industry
• Value addition in materials, and ‘green’ chemicals
• Position of residues as biocommodity in the bioeconomy?
• Agroresidues of food and non-food crops
– sugar cane bagasse & by-products
– palm oil residues
– cotton stalks
– rice straw / wheat straw / hulls
– corn cobs
– coconut husk / cocoa / coffee residues
– jute fibre and other fibre crops
– eucalypt bark
– verge grasses
– bamboo
Potential biocommodities
Application options
Palm oil mill by products
Oil PalmC
Fruits CPO
sludge
Press cakeFronts
Fatty acids
Refined oil
Glycerol (C3)
Biodiesel / soap
Stems
Fresh Fruit Bunches
EFB
sterilizingThrashing/ stripping
Digestion/pressing
Settling/ centrifuging/
decanting
depericarping
POME
Fibres
shells
Palm kernels dryingCrushing/ pressing
PKO
Nuts Kernel cake
Application options EFB
Energy
● Pellets / briquettes
● Torrefied pellets / Torwash
Pyrolysis oil + char
Horticultural substrate
Lignocellulose fibre
● Panels & boards
● Composites
● Pulp
Dissolving cellulose
2nd generation bioethanol
EFB
Cellulose (a) 38.3 (37.9)
hemicellulose 35.3 (35.0)
Ara 1.5
Xyl 63.0
Man -
Glc 23.1
Gal 2.7
UA 9.6
Lignin (S/G) 22.1
klason (22.9)
Acid soluble (1.1)
extractives (2.7)
Ash (1.5)
Higher heating
value
17.5-19.0 GJ/t
Lower heating
value
6.4 GJ/t
nutrients
N 0.7
K 0.08
P 2.37
Application options EFB
Energy pellets / briquettes
● Pretreatments / Washing
● Compaction (bale pressing)
● Pelletizing
Torrefied pellets / briquettes
Torwash (pellets / briquettes)
● ECN, Petten NL
EFB
Cellulose (a) 38.3 (37.9)
hemicellulose 35.3 (35.0)
Ara 1.5
Xyl 63.0
Man -
Glc 23.1
Gal 2.7
UA 9.6
Lignin (S/G) 22.1
klason (22.9)
Acid soluble (1.1)
extractives (2.7)
Ash (1.5)
Higher heating
value
17.5-19.0 GJ/t
Lower heating
value
6.4 GJ/t
nutrients
N 0.7
K 0.08
P 2.37
Application options EFB (OPT/OPF)
Pyrolysis oil (+ char)
● Double pressing (oil yield)
● Drying (<15% moisture)
● Shredding (<30 mm)
● Low dust and fines
BTG demo-line Malaysia
2t / hr dry input
fast pyrolysis
(50-60% yield)
Current status Pyrolysis in NL
BTG demo-line Malaysia (discontinued)
BTG 1st pyrolysis plant
Hengelo, NL 2015
5t / hr dry input fast pyrolysis
Green chemicals
Wood preservative
● Creosote substitute
Application options shells
Palm kernel shells
Lignin rich resource
● Use in bitumen substitution
● Experiments extraction
Shell
Cellulose (a) 20.8 (20.5)
hemicellulose 22.7 (22.3)
Ara 0.6
Xyl 63.4
Man -
Glc 21.8
Gal 2.3
UA 13.7
Lignin (S/G) 50.7
klason (49.9)
Acid soluble (1.6)
extractives (4.7)
Ash (1.0)
Higher heating
value
20.5-21.5 GJ/t
Lower heating value 15.1 GJ/t
nutrients
N 0.3-0.6
K 0.01
P 0.15
Application options EFB
Horticultural substrate
Peat moss substitution
Cocopeat alternative
● Pressed pith blocks (big bales)
● Fine and medium substrates (70 l bags)
● Control structure and physical characteristics
● Slow release fertilizers
● Constant quality (pH / water / air) RHP standards
● Slow decomposition
Application options EFB
Horticultural substrate
Market size > 1Mt
Cocopeat prize big bale (1.3t) 1.76 $
26 t pressed cocopeat / container
Comparison with EFB
● Pre-treatment / washing / shredding /
● pre-digestion / drying / water holding capacity
● compaction
Application options EFB / Mesocarp
Lignocellulose fibre
● Panels & boards
● Binderless boards (?)
● Composites
● Pulp, paper, cardboard
Less suitable fibre properties (Malaysia)
● Insulation materials
Application options EFB / Mesocarp
Lignocellulose fibre
Dissolving cellulose
● Cellupalm
2nd generation bioethanol
The CelluPalm semi batch process is a chemical (organosolv) pulping process with continuous output
1)Washing
2)Pre-hydrolysis
3)Hydrolysis (acetic acid, catalyst)
4)Bleaching (Optionally)
31
Design – process steps
Cellupalm’s Dissolving Cellulose Facility (DCF)
Adapting existing proven technologies focused on
processing EFB
Tested successfully by the Wageningen University (WUR)
WUR consequently patented the process and made it
available exclusively to Cellupalm
Dissolving cellulose from EFB
Topics to address
High value market – long term perspective
Scale of operation (12 ton - 40 ton FFB /hr mills)
Raw material costs EFB (5-15 $/t?)
Transportation EFB
Target 5000 t/yr dissolving cellulose
system integration
● Total solution for solids, liquids and gasses
● Use of heat and steam,
Markets for cellulose in textiles / bioplastics /
● 4000 $ /t
Application options EFB
2nd generation bioethanol / bioplastics
biorefinery plants
● corn stover (USA)
● EFB ?
EFB
Cellulose (a) 38.3 (37.9)
hemicellulose 35.3 (35.0)
Ara 1.5
Xyl 63.0
Man -
Glc 23.1
Gal 2.7
UA 9.6
Lignin (S/G) 22.1
klason (22.9)
Acid soluble (1.1)
extractives (2.7)
Ash (1.5)
Higher heating
value
17.5-19.0 GJ/t
Lower heating
value
6.4 GJ/t
nutrients
N 0.7
K 0.08
P 2.37
Conclusions
Fits in the UN Sustainable development goals (Paris December 2015)
EU Imports of oil palm biomass is considered attractive from countries that have a large capacity of production
Imports from South and Central American countries with high productivity of oil palm will be most suitable for tracing feedstock supplies
Conclusions
Companies are looking for alternative sourcing of biomass
Companies seek to transfer technology to partners in Latin America / Asia
Match-making options to explore (Economic Missions)
Conclusions
The secondary residues (EFB, Fibre, shells), released at the oil mill, are collected in bulk quantities and find limited added value. The bulk density of EFB restricts its use as biomass feedstock for exports. On site conversion of the biomass in more concentrated – more energy dense forms is required
Conversion into transportable and tradable commodities, such as ligno-cellulose pulp, particle board, pyrolysis oil, ethanol or furfural will be required for economic operation
Conclusions
• Organization of sustainable supply chains of new biocommodities needed
• R&D efforts and exchange of multidisciplinary expertise needed to implement innovations
• Cooperation between Colombia and EU offers opportunities for the future of sustainable bioeconomy and CO2 neutral production