Anna-Karin Jannasch January 2017

Slides:



Advertisements
Similar presentations
Grenada Sustainable Energy Plan Stakeholders Meeting April 5, 2002.
Advertisements

Biomass. Biomass Opportunities Significant growth opportunity Industrial wood waste Industrial mill residues Forest residues.
Wood Energy and Cleantech – SWOT- analysis, Östergötland Johan Niskanen, East Sweden Energy Agency.
Wood energy and raw material supply Forest owners’ views Ivar Korsbakken, special adviser.
Renewable Biomass Fuel As “Green Power” Alternative for Sugarcane Milling in the Philippines T.C. Mendoza, University of the Philippines at Los Baños,
1 Alternative Energy Strategies Transitions to renewables and supply security Philip Peck IIIEE at Lund University, Sweden II Energy Club meeting, Minsk,
Profu Profu was established 1987 and has since then been an independent research and consultant company. The company works with strategic analysis within.
Linking renewable energy to Rural Development in Mid-Sweden Hans Halvarsson, County Administration, Jämtland Lars Gunnar Rönnqvist, County Administration,
Towards a bio-based economy Sarah Nilsson Head of Sustainable Development Växjö, Sweden.
Show guidelines, which are useful when placing elements and photos: 1. Rightclick on the slide and choose ’Grid and Guides’ 2. Check ’Display drawing guides.
VT Department of Forests, Parks & Recreation Wood Energy in Vermont January 2005 VT Department of Forests, Parks & Recreation.
Part-financed by the European Union WP 4 implementation cases: Estonia BalticClimate, 1st transnational seminar Gävle, June 11-12, 2009.
Green Partnerships Local Partnerships for Greener Cities and Regions BIOMASS Expert working group on biomass Prepared by Veronika Valentar.
Christer Segerstéen LRF Forest owners’ association Sweden’s Green Gold.
The Mature Market : A European Perspective Neil Harrison SAC Environment & Design Senior Bioenergy Consultant.
FOREST FUEL - RENEWABLE ENERGY. Renewable energy Today, renewable energy is an important part of the Swedish energy budget. With its share in the energy.
Identification of needed competences Socio-economic development in the era of renewable energies: Towards the creation of a research institution for the.
ICRAT, 2004, Zilina, Slovakia A FRAMEWORK FOR CALCULATING THE ECOLOGICAL FOOTPRINT OF AIR TRANSPORT Howard Cambridge, Stockholm Environment Institute,
(1) A catalyst for growth Presented by Thomas Knutzen May 18, 2009.
2012 Investment project of cement plant construction in Soligalich municipal district of the Kostroma region.
Biomass to energy projects in the Caribbean and cross-island trade for power production IRENA, Martinique, June
The Opportunity for Scotland in Geothermal Seonaid Vass Director, Renewable Energy Low Carbon Technologies.
Current Integrated Use of Biomass from Forest Treatment Plummer Forest Products.
FUELBELT European experiences in production of wood biomass Enhanced use and consumption of wood June 18 – 19, 2007 Opatija, Croatia Veli Pohjonen University.
Dominik Roser, Ph.D. Advanced Bioeconomy Feedstocks Conference June 9-10, 2015 New Orleans British Columbia and Biomass Availability.
Wood for Energy Experience of Coillte to date Presentation to the Oireachtas Joint Committee on Marine, Communications and Natural Resources George McCarthy.
Forest Engineering Group Autumn Symposium Sept 2009 Presentation by Fergus Tickell Managing Director Northern Energy Developments Ltd.
ENERGY Success factors of bioenergy for CHG mitigation in Scandinavia Satu Helynen VTT Energy 1. Use of biomass based fuels in Europe 2. Role of forest.
Sunlight CO 2 Water Fibres Oxygen Sweden’s Green Gold.
Directorate General for Energy and Transport Euroforenet Conference 20/11/2007 Brussels European Commission Kyriakos MANIATIS Biofuels & Industry DG TREN.
Investments in Renewable Energies. A predictable business environment n A business friendly environment and a functioning and stable legislative are the.
Anni Podimata MEP Member, Committee on Industry, Research and Energy 8th Inter-Parliamentary Meeting on Renewable Energy and Energy Efficiency Budapest,
The sole responsibility for the content of these slides lies with the authors. It does not necessarily reflect the opinion of the European Union. Neither.
WHY TO PROMOTE LOCAL ENERGY RESOURCES? 1 LAEF Latvia Renewable Energy Federation Riga, June 18, 2015.
BI Marketing Analyst input into report marketing Report TitleElectricity in Texas Report Subtitle State profile of power sector, market trends and investment.
ENO ENERGY CO- OPERATIVE. 3 heat plants - 0,8 MW -1MW + 1 MW - 1,2 MW + 0,8 MW Net length 8,7 Km Requirements for energy MWh / a.
TECHNICAL FEASIBILITY STUDY 1 Chapter (4) Lecturer.Ahmed El Rawas.
Boiler Operations, Maintenance and Performance Conference.
Fulvio Di Fulvio Assistant Researcher Assistant Researcher Department of Forest Biomaterials and Technology Swedish University of Agricultural Sciences.
Bioenergy in Energy Planning in Bosnia and Herzegovina
The Swedish Energy Agency Technology Department Anders Johansson.
IEA Bioenergy Task 38 Case Study on the Greenhouse Gas Budgets of Peat Use for Energy in Ireland Kenneth Byrne and Sari Lappi Forest Ecosystem Research.
Next Generation Energy Verso Paper Sartell Mill. 2 Verso Paper – Sartell Energy Bio Electrical Usage & Sourcing 72 MW usage rate annual average. Sourcing.
Azeus Machinery Co.ltd Website:
GROWING THE RENEWABLE ENERGY ECONOMY The current state of play on biomass heat Frank Aaskov Policy Analyst, REA All-Energy, 7 th May 2015, SECC Glasgow.
Saving with renewable energy Presentation to North East Bioresources and Renewables January 2014.
Kenya’s INDC: Actions in the Energy Sector
BIOENERGY IN ELECTRICITY GENERATION
Towards a 100% Renewable Energy Supply “Renewables Working Together”
Anna-Karin Jannasch January 2017
Go LNG LNG Value Chain for Clean Shipping, Green Ports and Blue Growth in Baltic Sea Region.
Dominik Franjo Dominković. , I. Bačeković, D. Sveinbjörnsson, A. S
Operational modelling of a green gas supply chain
DISTRICT COOLING A promising and sustainable option for HFC phase-down
Clemens Schneider, Wuppertal Institute
Transport of Light Gases Blended with LNG.
Finnish Climate and energy strategy and electricity markets
Module 39 Solar, Wind, Geothermal, and Hydrogen
ENERGY SECTOR IN MONTENEGRO
The National Renewable Energy Action Plan 2010 for Austria
IEA Workshop Edinburgh, 12th November 2001 Kenneth Möllersten
Renewable energy – smart solutions bring economic and social dividends
FIELD LEVEL CHALLENGES FOR SOLAR PARKS IN INDIA
Improving Energy Reliability & Performance
Improving Energy Reliability & Performance
Can managed forest land provide effective strategies for climate change mitigation ? - examples from Sweden IEA Bioenergy Canberra, March 26-30, 2001.
CYnergy Kick-Off Meeting
Michael Westwater SENIOR PLANNER – National Policy Team
Arizona League of Cities Sustainability
Best Practice Examples of Industrial Symbiosis in Lithuania
Presentation transcript:

Anna-Karin Jannasch January 2017 Gasification for bio-sng production adjacent to a forest industry – A value study on fuel handling and logistics Anna-Karin Jannasch January 2017 DIVISION ENHET

Budget, financiers and time of project Total project budget: 325 kSEK Authors: Anna-Karin Jannasch, Jenny Rissler, Martin Ragnar Financiers: Swedish Energy Agency, E.On Gas, Swedegas, Stora Enso Hyltebruk, et al. Time of project: Dec 2014- June 2015

BACKGROUND To realize a fossil independent vechicle fleet 2030, it is necessary to intensify the biofuel production including the realization of large –scale biomass gasification plants. Much R&D on-going in the area, not least in Sweden with the GoBiGas-project in the front-line. The largest part of the R&D resources devoted to technical issues. Less interest in analyzing the value of logistic issues, e.g. biomass into and product gas out from the plant. Meanwhile, forest industry is in paradigm shift, where newspaper industry is in rapid decline. New business opportunity for pulp and paper mills: biofuel production?

AIM OF STUDY To investigate and analyze added values of co-locating a new large bio-SNG plant with an existing industrial forestry site compared to building it as a stand alone plant. Key-questions: Which parts of a wood yard have a value in the establishment of a biomass gasification plant and which is the value of an existing infrastructure for receiving large amounts of wood? (key: The opportunity cost of a green field establishment) Which is the value of an existing transmission gas pipeline at a site where a gas plant to be built relative to such access does not exist? (key: The cost for the new establishment of a gas transmission pipeline) Which potential depositions are available for the waste residual heat from the gasification process and / or which heat depositions are needed in order to achieve profitability? (key: Estimation of heat production/heat demand in the vicinity)

Cont. Aims – Key-questions 5. Which of the studied variables / indicators are the most important for determining the location of future gasification plants? 6. Are there places in Sweden, which could be of interest for the location of a gasification unit where existing values in the form of infrastructure today already exist or are being planned to be constructed within next 10 years?

Delimitations of study Biomass gasification targeted for solely bio-SNG production. Gasification of solid wood. Large-scale gasification plants. No analysis on the best choice for gasification nor downstream processing are included. Processes out of scope of this study. Possible values of existing auxiliary systems (boilers, water cooling systems) at the industrial forestry sites were not examined.

Working approach Closer study and comparison of six different potential locations for a future large-scale gasification plant : Hyltebruk Värö Vaggeryd Braviken Fors Norrsundet Information gathered through field visits, literature studies, interviews with key players in the forest, energy and gas industry, equipment suppliers, et al. Figure. Map of locations studied as well as existing and possible future gas grids and LNG terminals marked.

cont. Working approach The Bio2G, i.e. the stand-alone 200 MW bio-SNG plant planned for by E.On, was used as reference. The project was carried out in close co-operation with Stora Enso Hylte, E.On Gas and Swedegas. Figure. A block flow diagram for a stand-alone bio-SNG plant. The process steps that have been investigated in this project are marked in the bright yellow boxes.

Results Severeal benefits could be gained by co-locating a larger bio-SNG plant at an existing industrial forestry site compared to building it as a stand-alone, potentially lowering both CAPEX and OPEX. Identified values reducing the total biomass cost (incl. raw material & transportation): The vicinity to the forest - Advantageous for sites located in-land forest in regions with high forest growth rate (Vaggeryd) By-products such as low-cost saw dust and bark available for bio-SNG production (Värö - annual bark production of approximately 260-270 000 tonnes expected after expansion 0,4 TWh bio- SNG). More secure biomass supply - Reducing the need for larger storage capacities. Logistics for large scale biomass transportation into the site (road, rail and sea) already in place (Värö, Braviken, Norrsundet)

cont. Results Large value of being connected to or to be located close to a larger gas grid (TODAY: Hyltebruk, Värö; FUTURE: Norrsundet). SEK/MWh Hyltebruk Värö Vaggeryd Braviken Fors Norrsundet annual inv. 0,4 (0,7 km) 5 (9 km) 20 (41 km) 80 (170 km) Similar to Vaggeryd Similar to Hyltebruk Distr. 100/10 GWh/yr 50 /90 50/90 Distrtot 55/95 70/110 130/170 REFERENCE: Flat bed transporation: 120-180 SEK/MWh incl. gas storage For Hyltebruk, Värö, Vaggeryd – distance refers to the existing transmission gas grid. For Braviken, Fors and Norrsundet – distance refers to the nearest future regional gas grid under consideration.

cont. Results Identified (minor) values: Available prepared land for wood yard capacity or other activity needed for the bio-SNG plant reducing the investment cost of the bio-SNG plant. (Hyltebruk, Vaggeryd, Braviken, Fors, Norrsundet) Free capacity in already existing machinery park (chippers, crushers, dryers, etc.) to which the new installations can be adapted, cutting the investment cost of the bio-SNG plant. Free staff available, with valuable know-how in large scale fuel handling of solid biomass material, control and maintenance of larger industry, reducing the number of shift workers and hence, cutting the operation costs of the bio-SNG plant. Possibility to make the forest industry´s transportations “green”.

Cont. Results A clear challenge for all selected forestry sites (except for Vaggeryd) as of 2015 is the difficulty of finding deposition for the surplus heat. This loss of heat revenue could however be off-set by the cheaper biomass. Based on y 2015 conditions: Hyltebruk and Värö – FRONTRUNNING LOCATIONS In a 10-15 year perspective: Vaggeryd and Norrsundet – sites of high interest?

Anna-Karin Jannasch anna-karin.jannasch@ri.se 010-516 47 51 THANK YOU! Anna-Karin Jannasch anna-karin.jannasch@ri.se 010-516 47 51 Energy and Circular Economy