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Chemrec Sales Presentation to ETF - DME

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Scenarios for<br />

Development of Bio<strong>DME</strong><br />

Supplies<br />

<strong>DME</strong> 4<br />

S<strong>to</strong>ckholm,<br />

September 7- 8, 2010<br />

Ingvar Landälv, Chief Technology Officer, <strong>Chemrec</strong> AB<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Content<br />

• Bio<strong>DME</strong> from Pulp Mills via Black Liquor<br />

Gasification<br />

• Bio<strong>DME</strong> from Biomass through gasification<br />

• Supply and Demand Balance for a <strong>DME</strong> fuel system<br />

- Flexibility for Bio<strong>DME</strong> producers<br />

- Guarantee <strong>DME</strong> availability in the fuel system<br />

- Flexibility for fossil <strong>DME</strong> producers<br />

• Conclusions<br />

2<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Content<br />

• Bio<strong>DME</strong> from Pulp Mills via Black Liquor<br />

Gasification<br />

• Bio<strong>DME</strong> from Biomass through gasification<br />

• Supply and Demand Balance for a <strong>DME</strong> fuel system<br />

- Flexibility for Bio<strong>DME</strong> producers<br />

- Guarantee <strong>DME</strong> availability in the fuel system<br />

- Flexibility for fossil <strong>DME</strong> producers<br />

• Conclusions<br />

3<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


The Route via Gasification and Syngas <strong>to</strong><br />

Au<strong>to</strong>motive Fuels<br />

Coal<br />

CO 2<br />

Syntetic<br />

Diesel (FTD)<br />

Heavy oils<br />

Methanol<br />

Natural Gas<br />

Biomass<br />

Black liquor<br />

GASIFICATION<br />

Syngas<br />

(CO+H2)<br />

<strong>DME</strong> (DiMetylEter)<br />

Hydrogen<br />

Chemicals<br />

SNG<br />

9/13/2010 4<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Major Biomass Flow from the Forrest Today<br />

TODAY<br />

Logs<br />

Sawmill<br />

Wood<br />

Products<br />

Forest<br />

Pulp<br />

Wood<br />

Pulp<br />

Boiler<br />

Mill<br />

Recovery<br />

Pulp<br />

Mill<br />

Pulp<br />

9/13/2010 5<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Major Biomass Flow from the Forrest<br />

With the BLG* Based Biorefinery Concept<br />

TOMORROW (1)<br />

Logs<br />

Sawmill<br />

Wood<br />

Products<br />

Forest<br />

Pulp<br />

Wood<br />

Pulp<br />

Boiler<br />

Mill<br />

Combined Recovery<br />

and Fuel Generation<br />

Recovery<br />

Pulp<br />

Mill<br />

Pulp<br />

Forest<br />

Residual<br />

Fuel<br />

* BLG: Black Liquor Gasification<br />

9/13/2010 6<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Black Liquor<br />

A<strong>to</strong>mizing<br />

medium<br />

Oxygen<br />

GASIFIER<br />

<strong>Chemrec</strong> Gasification Process<br />

DP-1 in Piteå, Sweden<br />

C.W<br />

BFW<br />

GAS<br />

COOLER<br />

BFW<br />

LP-<br />

St.<br />

White/Green<br />

Liquor<br />

SULPHUR<br />

ABSORPTION<br />

Raw Syngas<br />

CLEAN<br />

SYNGAS<br />

QUENCH<br />

MP-<br />

Steam<br />

FLARE<br />

GREEN<br />

LIQUOR<br />

Condensate<br />

Weak Wash<br />

9/13/2010 7<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


The Bio<strong>DME</strong> Block Flow Diagram<br />

H 2 S / CO 2 <strong>to</strong> mill<br />

First single- pass<br />

MeOH synthesis<br />

featuring > 95% yield<br />

MeOH<br />

Synthesis 2<br />

Sulphur<br />

guard<br />

MeOH<br />

Synthesis 1<br />

Amine<br />

wash<br />

CO<br />

shift<br />

MP steam<br />

MeOH<br />

(recycled)<br />

<strong>DME</strong><br />

Product<br />

Gases<br />

<strong>DME</strong><br />

synthesis<br />

Raw MeOH<br />

Carbon<br />

filter<br />

~ 4 <strong>to</strong>n<br />

<strong>DME</strong>/day<br />

Evapora<strong>to</strong>r<br />

DP-1<br />

Water<br />

9/13/2010 8<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


New Bio<strong>DME</strong> Pilot - CAD Illustration<br />

Flare<br />

DP-1<br />

plant<br />

Amine<br />

Wash<br />

WGS,<br />

MeOH/<strong>DME</strong>,<br />

Distillation<br />

Carbon<br />

filter<br />

9<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Current project status of Domsjö project<br />

&<br />

in collaboration<br />

• Domsjö mill sulphite thick liquor gasified successfully in DP-1<br />

• 500 MMSEK (~ 50 MM€) investment grant approved by Swedish<br />

Energy Agency (conditioned EU’s DG Competition approval)<br />

• Feasibility report complete (May 2010)<br />

• Technology for Gas Purification and MeOH/<strong>DME</strong> Synthesis selected.<br />

• Front-end Engineering Design (FEED) scheduled for Q3/10-Q2/11 for<br />

final investment decision in Q3 2011.<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


The Energy Combine of Örnsköldsvik<br />

Domsjö Mill Övik Energy Övik Community<br />

-TODAY-<br />

Domsj<br />

ö<br />

Fiber<br />

Biomass<br />

Pulp<br />

wood<br />

Övik<br />

Energy<br />

Steam<br />

Power<br />

District<br />

heat<br />

Örnsköldsvik<br />

Community<br />

Recovery<br />

boilers<br />

Domsjö<br />

Fabriker<br />

A sodium sulphite<br />

based mill<br />

Cellulose fiber<br />

Ligno sulfonate<br />

Ethanol<br />

9/13/2010 11<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


The Energy Combine of Örnsköldsvik<br />

Domsjö Mill Övik Energy Övik Community<br />

- TOMORROW -<br />

Domsj<br />

ö<br />

Fiber<br />

Biomass<br />

Pulp<br />

wood<br />

Övik<br />

Energy<br />

Steam<br />

Power<br />

District<br />

heat<br />

Örnsköldsvik<br />

Community<br />

The sodium sulphite<br />

based mill<br />

Cellulose fiber<br />

Ligno sulfonate<br />

Ethanol<br />

300 t/d <strong>DME</strong><br />

or<br />

450 t/d Methanol<br />

9/13/2010 12<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Domsjö Fuels Plant Build Up – Parallel Trains<br />

1 x 100%<br />

Air<br />

separation<br />

Power<br />

Oxygen<br />

3 x 50%<br />

Steam<br />

1 x 100%<br />

CO 2<br />

Gasification<br />

Thick Liquor<br />

Weak wash<br />

LS Green liq.<br />

and<br />

Quench<br />

Rawgas<br />

Gas<br />

cooling<br />

Synthesis gas<br />

Gas Conditioning<br />

And Purification<br />

H 2<br />

S<br />

Synthesis- and<br />

Distillation<br />

<strong>DME</strong>/Methanol<br />

1 x 100%<br />

9/13/2010 13<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Preparations for industrial scale plants<br />

<strong>Chemrec</strong> Gasifier Unit Status:<br />

• Gasifier, quench and gas cooler<br />

scale-up work complete<br />

• Gasifier black liquor nozzle scaleup<br />

work ongoing<br />

• Process Design Package work<br />

ongoing <strong>to</strong>gether with key<br />

suppliers<br />

9/13/2010<br />

14<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Preparations for industrial scale plants<br />

Steam<br />

Drum<br />

Reac<strong>to</strong>r<br />

PRELIMINARY<br />

Quench<br />

Final<br />

Coolers<br />

CCC<br />

Train #1 Train #2 Train #3<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Location for Potential Pulp Mill Biorefineries<br />

in the US<br />

More than 100 suitable pulp mills In North America<br />

with 200-400 MW of Black Liquor per plant<br />

Some 250 suitable pulp mills<br />

world wide<br />

16<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Content<br />

• Bio<strong>DME</strong> from Pulp Mills via Black Liquor<br />

Gasification<br />

• Bio<strong>DME</strong> from Biomass through gasification<br />

• Supply and Demand Balance for a <strong>DME</strong> fuel system<br />

- Flexibility for Bio<strong>DME</strong> producers<br />

- Guarantee <strong>DME</strong> availability in the fuel system<br />

- Flexibility for fossil <strong>DME</strong> producers<br />

• Conclusions<br />

17<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


The Route via Gasification and Syngas <strong>to</strong><br />

Au<strong>to</strong>motive Fuels<br />

Coal<br />

CO 2<br />

Syntetic<br />

Diesel (FTD)<br />

Heavy oils<br />

Methanol<br />

Natural Gas<br />

Biomass<br />

Black liquor<br />

GASIFICATION<br />

Syngas<br />

(CO+H2)<br />

<strong>DME</strong> (DiMetylEter)<br />

Hydrogen<br />

Chemicals<br />

SNG<br />

9/13/2010 18<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Major Biomass Flow from the Forrest<br />

including Direct Biomass Gasification<br />

TOMORROW (2)<br />

Logs<br />

Sawmill<br />

Wood<br />

Products<br />

Pulp<br />

Forest<br />

Pulp<br />

Wood<br />

Pulp<br />

Boiler<br />

Mill<br />

Recovery<br />

Pulp<br />

Mill<br />

Forest<br />

Residual<br />

Combined Recovery<br />

and Fuel Generation<br />

Fuel<br />

Direct<br />

Biomass<br />

conver<br />

sion<br />

Fuel<br />

19<br />

9/13/2010<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Major Biomass Flow from the Forrest<br />

Enlarged Feeds<strong>to</strong>ck Base<br />

TOMORROW (3)<br />

Logs<br />

Sawmill<br />

Wood<br />

Products<br />

Pulp<br />

Forest<br />

Pulp<br />

Wood<br />

Pulp<br />

Boiler<br />

Mill<br />

Recovery<br />

Pulp<br />

Mill<br />

Forest<br />

Residual<br />

Combined Recovery<br />

and Fuel Generation<br />

Fuel<br />

Energy crops,<br />

Agricultural waste, etc<br />

Direct<br />

Biomass<br />

conver<br />

sion<br />

Fuel<br />

20<br />

9/13/2010<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Synthetic fuels through gasification.<br />

Value Chain A as defined by EBTP 1)<br />

1)<br />

European Biofuels Technology Platform<br />

Pretreatment<br />

-pyrolysis<br />

- coarse prep.<br />

-drying<br />

Initial<br />

Conversion<br />

Final<br />

Conversion<br />

-Hydrotreatment<br />

-Co-treatment<br />

Transport<br />

Biomass<br />

Production<br />

System<br />

-<strong>to</strong>rrefaction<br />

-grinding<br />

-black liquor *<br />

- Feeding sys.<br />

- Gasification<br />

-CH 4 ref’ng<br />

- Tar handling<br />

- Particulate<br />

handling<br />

-Shifting<br />

- Gas cleaning<br />

-Etc<br />

**Final<br />

Conversion<br />

-Synthesis<br />

-<br />

reforming<br />

-Cracking<br />

- hydrotreating<br />

- Distillation<br />

Biofuels<br />

Co-products<br />

Co-located<br />

-Etc<br />

*No pre-<br />

treatment necessary before gasification.<br />

**certain steps of final conversion<br />

may be located elsewhere<br />

21<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Synthetic fuels through gasification<br />

Examples European project developments (1)<br />

Source: EBTP<br />

Choren Projects<br />

a. Beta plant,<br />

~45 MW t / FT products / Under Start-up<br />

b. Sigma Plan<br />

~640 MW t / FT products / Start-up 14-15(?)<br />

Choren Beta Plant<br />

BioLiq Project<br />

2 MW t / via <strong>DME</strong> <strong>to</strong><br />

HC:s / 2012<br />

Bioliq pyrolysis plant<br />

+<br />

Lurgi MPG<br />

gasifier<br />

22<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Synthetic fuels through gasification<br />

Examples European project developments (2)<br />

Source: EBTP<br />

<strong>Chemrec</strong> development plant<br />

<strong>Chemrec</strong> Projects<br />

a. Bio<strong>DME</strong><br />

~3 MW t<br />

/ <strong>DME</strong> / Start-Up Sept 2010<br />

b. Domsjö Biofuels<br />

~200 MW t<br />

/ <strong>DME</strong> and Methanol / Start-Up 2013<br />

UPM Project<br />

Bio<strong>DME</strong> plant under construction<br />

Pilot tests in<br />

Chicago at IGT<br />

a. Pilot testing at IGT, Chicago<br />

~5 MW t<br />

/ syngas production / Ongoing<br />

b. Commercial Demonstration<br />

~300 t<br />

/ FT products / Start-Up 2014/15<br />

23<br />

Gasification Module<br />

Full sized plant<br />

Source: UPM, Andritz,<br />

Carbona<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Synthetic fuels through gasification<br />

Examples European project developments (3)<br />

Source: EBTP<br />

VVBGC Project<br />

(under re-financing &<br />

re-organisation)<br />

~15 MW t<br />

/ clean syngas / 2012-13<br />

Neste-S<strong>to</strong>ra Enso project<br />

~ 12 MW t<br />

/part stream <strong>to</strong> FT / Gasification in operation<br />

BioTfueL Project<br />

~ 12 MW t<br />

/ FT products / 2012<br />

24<br />

S<strong>to</strong>raEnso Pilot Plant<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Production Cost as Function of Price of<br />

Biomass Source: Renew (2008)<br />

BtL production costs [€/GJ]<br />

60<br />

50<br />

40<br />

30<br />

20<br />

~ 0.5 €/ lit.<br />

diesel<br />

eqv.<br />

as <strong>DME</strong><br />

10<br />

0<br />

<strong>Chemrec</strong><br />

CHOREN<br />

FZK<br />

TU Wien<br />

Abengoa CFB<br />

Abengoa EF<br />

CUTEC<br />

TU Wien<br />

Choren<br />

~ 75-95 €<br />

per dry <strong>to</strong>n<br />

biomass<br />

0 1 2 3 4 5 6 7 8 9<br />

Total biomass provision costs at BtL plant [€/GJ]<br />

<strong>Chemrec</strong><br />

25<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Scenario: All Planned Renewable<br />

Gasification Capacity in Europe <strong>to</strong><br />

produce Bio<strong>DME</strong><br />

Project<br />

Feeds<strong>to</strong>ck<br />

(MW t<br />

)<br />

Bio<strong>DME</strong> Prod.<br />

(Tonnes / year)<br />

Start-up<br />

Year<br />

<strong>Chemrec</strong>, Domsjö 200 100 000* 2014<br />

UPM 300 180 000* 2014/15<br />

Choren 640 380 000* 2014/15<br />

BioLiq, S<strong>to</strong>raEnso<br />

VVBGC and other<br />

minor projects<br />

40 11 000* 2012/13<br />

Total ~ 670 000 2015<br />

A SCENARIO<br />

* Different yield from different processes as well as different utilization<br />

26<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Content<br />

• Bio<strong>DME</strong> from Pulp Mills via Black Liquor<br />

Gasification<br />

• Bio<strong>DME</strong> from Biomass through gasification<br />

• Supply and Demand Balance for a <strong>DME</strong> fuel system<br />

- Flexibility for Bio<strong>DME</strong> producers<br />

- Guarantee <strong>DME</strong> availability in the fuel system<br />

- Flexibility for fossil <strong>DME</strong> producers<br />

• Conclusions<br />

27<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Concept for development of the Bio<strong>DME</strong><br />

market for heavy duty vehicles<br />

(short / medium term)<br />

Number of<br />

heavy duty<br />

vehicles running<br />

on <strong>DME</strong><br />

3000<br />

2000<br />

1000<br />

The<br />

Bio<strong>DME</strong><br />

Project<br />

The<br />

Domsjö<br />

Project<br />

Methanol<br />

- for low blend in gasoline<br />

- for RME/MTBE<br />

- for chemical use<br />

<strong>DME</strong><br />

10<br />

3Q 2010<br />

2014<br />

28<br />

Time<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Concept for development of the Bio<strong>DME</strong><br />

market for heavy duty vehicles<br />

(medium / long term)<br />

Number of<br />

heavy duty<br />

vehicles running<br />

on <strong>DME</strong><br />

16000<br />

12000<br />

?<br />

8000<br />

4000<br />

10<br />

2010<br />

Bio<strong>DME</strong><br />

Project<br />

?<br />

2014<br />

The<br />

Domsjö<br />

Project<br />

MeOH<br />

<strong>DME</strong><br />

2018 2022<br />

29<br />

Time<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Concept for development of the Bio<strong>DME</strong><br />

market for heavy duty vehicles<br />

(medium / long term)<br />

Number of<br />

heavy duty<br />

vehicles running<br />

on <strong>DME</strong><br />

16000<br />

12000<br />

Production: 680 000 t <strong>DME</strong>/y<br />

30 <strong>to</strong>n dieseleqv / truck, year<br />

Corresponds <strong>to</strong> apr. 15 000 HD trucks<br />

?<br />

8000<br />

4000<br />

10<br />

?<br />

MeOH<br />

<strong>DME</strong><br />

2010 2014 2018 2022<br />

30<br />

Time<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


How <strong>to</strong> meet the demand from a growing Bio<strong>DME</strong><br />

Fuel Market ?<br />

Alternate usage<br />

of renewable<br />

MeOH<br />

Alternate usage<br />

in the world<br />

MeOH market<br />

Renewable<br />

Feeds<strong>to</strong>ck<br />

BioMeOH<br />

Dual Fuel<br />

Plants<br />

Fossil MeOH<br />

Bio<strong>DME</strong><br />

<strong>DME</strong><br />

Fuel<br />

Fossil <strong>DME</strong><br />

Blend in<strong>to</strong> LPG<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Coal<br />

The Route via Gasification and Syngas <strong>to</strong><br />

Au<strong>to</strong>motive Fuels<br />

CO 2<br />

Syntetic<br />

Diesel (FTD)<br />

Heavy oils<br />

Methanol<br />

Natural Gas<br />

Biomass<br />

Black liquor<br />

GASIFICATION<br />

Syngas<br />

(CO+H2)<br />

<strong>DME</strong> (DiMetylEter)<br />

Hydrogen<br />

Chemicals<br />

SNG<br />

9/13/2010 32<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Price Levels of some Key Commodities<br />

Commodity<br />

€ cents / kWh<br />

(approx.)<br />

Crude at 80 USD/bbl 3.5<br />

Gasoline at refinery gate,<br />

4.0<br />

NW Europe (0.4€/lit)<br />

Diesel at refinery gate, NW Europe<br />

4.0<br />

(0.4€/lit)<br />

Methanol, contract price (average<br />

3.6<br />

Jan -09 <strong>to</strong> March -10) Rotterdam,<br />

(200€/t 250 USD/t )<br />

<strong>DME</strong>, estimate based on methanol<br />

3.7-3.8<br />

price<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Coal<br />

The Route via Gasification and Syngas <strong>to</strong><br />

Au<strong>to</strong>motive Fuels<br />

Syntetic<br />

Diesel (FTD)<br />

Heavy oils<br />

Methanol<br />

Natural Gas<br />

Biomass<br />

Black liquor<br />

GASIFICATION<br />

Syngas<br />

(CO+H2)<br />

CO 2<br />

<strong>to</strong><br />

CCS<br />

<strong>DME</strong> (DiMetylEter)<br />

Hydrogen<br />

Chemicals<br />

9/13/2010 34<br />

SNG<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


PRINCIPLE: Net CO2 emission from GTL and BTL if<br />

CCS is applied. Case <strong>DME</strong><br />

Total emission of greenhouse gases (g CO2 eqv / km)<br />

400<br />

300<br />

200<br />

100<br />

0<br />

Gasoline &<br />

diesel<br />

<strong>DME</strong> from<br />

Black liquor<br />

NG <strong>to</strong> <strong>DME</strong><br />

100 200 300 400 500 600<br />

Total energy consumption (MJ / 100 km)<br />

Conventional gasoline<br />

Conventional diesel<br />

Biodiesel: Glycerin as chemical<br />

Biodiesel: Glycerin as animal feed<br />

Syndiesel: Coal<br />

Syndiesel: Natural gas<br />

Syndiesel: Biomass<br />

Syndiesel: Black liquor<br />

<strong>DME</strong>: Coal<br />

<strong>DME</strong>: Natural gas<br />

<strong>DME</strong>: Biomass<br />

<strong>DME</strong>: Black liquor<br />

EtOH: Wheat, straw CHP, DDGS as AF<br />

EtOH: Sugar cane (Brazil)<br />

EtOH: Wheat, straw CHP, DDGS fuel<br />

EtOH: Cellulose<br />

EtOH: Wheat straw<br />

EtOH: Wheat, coal CHP, DDGS as AF<br />

EtOH: Wheat, coal CHP, DDGS fuel<br />

EtOH: Wheat, NG GT+CHP, DDGS AF<br />

EtOH: Wheat NG GT+CHP, DDGS fuel<br />

Biogas: Municipal waste<br />

Biogas: Manure<br />

Source: EUCAR/CONCAWE/JRC<br />

35<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


The chicken / egg problem has been resolved before!<br />

Produce Bio<strong>DME</strong><br />

Develop Market<br />

Distribute the Fuel<br />

Produce Fossil <strong>DME</strong><br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Summary and Conclusions 1<br />

• Fuel generation at pulp mills has in various<br />

studies shown <strong>to</strong> have highest efficiency and<br />

lowest production cost compared <strong>to</strong> renewable<br />

fuels alternatives<br />

• Bio<strong>DME</strong> will be produced from November 2010.<br />

Capacity 4 <strong>to</strong>ns / day<br />

• An industrial demonstration plants planned <strong>to</strong> be<br />

in operation early 2014. Capacity 100 000 <strong>to</strong>ns of<br />

<strong>DME</strong> or corresponding amounts of methanol<br />

• Bio<strong>DME</strong> can be produced efficiently in biomass<br />

gasification based plants<br />

37<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


Summary and Conclusions 2<br />

• Bio<strong>DME</strong> production needs <strong>to</strong> be balanced with a<br />

second product, preferably BioMethanol<br />

• Fossil <strong>DME</strong> will play a role <strong>to</strong> secure <strong>DME</strong><br />

availability in the <strong>DME</strong> fuel system<br />

• Fossil <strong>DME</strong> can be produced at competitive costs<br />

compared <strong>to</strong> fossil diesel in a crude oil price<br />

scenario > 50-60 USD/bbl<br />

38<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed


With support from and in collaboration with…<br />

Thank You!<br />

www.chemrec.se<br />

CHEMREC<br />

Energy <strong>to</strong> Succeed

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