Biogas as an Important Part of the Sustainable Development in our Society

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Transcription:

Biogas as an Important Part of the Sustainable Development in our Society Johan Saarela Development Engineer +358 (0)50 376 5054 johan.saarela@stormossen.fi 21 th March 2018 Vaasa City Hall Finland

CONTENT Background Biogas production Biogas as vehicle fuel Benefits of biogas Summary

STORMOSSEN Founded 1985 Employs 40 persons Owned by 6 municipalities 100 000 residents in the area Waste recycle rate 98,5 % (2017) Turnover 13,6 M. (2017) Products: Biogas for fuel, electricity and heat Compost soil District heating and electricity Raw materials

STORMOSSEN 1985 Founded 1990 Biogas production started 1994 Second Digester + gas-engine (330 kwe) 1995 Heating Botniahalli with biogas 2007 Landfill gas collection 2009 New gas-engine (730 kwe) 2012 Westenergy 2014 Agreement with the city of Vaasa to use bio-methane in public transport 2017 Upgrading and filling station

WESTENERGY Energy recovery 50 municipalities 400 000 residents in the area 150 000 ton/year = 20 ton/hour District heat 280 GWh = 1/3 of district heating in Vaasa Electricity 80 GWh = approx. 7000 homes

WASTE TREATMENT National waste plan objectives 50 % recycled as material 30 % recycled as energy 20 % maximum to landfill Stormossen 2017 (2016) 49 % recycled as material (46) 50 % recycled as energy (53) 1 % maximum to landfill (1)

BIOGAS HISTORY 1859 First plant in India 1895 UK and Germany developed the process, for reducing sludge volumes and the gas was occasionally used as energy 19th and beginning of 20th century Town gas for lighting 1930s in India developed the process for farmers 1930s understanding the anaerobic bacteria producing methane gas 1940s Biogas plant and refueling in Helsinki and a biogas plant in Stockholm 1960s China and India as cooking fuel 1970s oil crisis slight increase in interest 1990s for treating organic waste streams

METHANE SOURCES Source: Lampinen (2013) - Proposal for a glossary of methane fuels in transport. Edited: Johan Saarela (2014)

PRODUCTION Raw biogas 63 % methane 2,4 million Nm³ = Upgraded biogas 1,6 million Nm³ (97 % methane) = 16 GWh = 1,6 million liter diesel = Enough for 12 buses + 1000 vehicles or 24 buses 16 000 ton sludge (TS 20%) = 46 000 ton sludge-slurry (TS 7%) 16 000 ton biowaste (TS 31%) = 36 000 ton bio wasteslurry (DM 10%) 1,45 /kg = 0,97 /liter gasoline = 1,10 /liter diesel Digestate approx. 7000 ton annually mostly used for landscaping 130 ton P 175 ton N

FILLING STATION

MAP OF ACTORS

BIOGAS AS FUEL

BIOGAS AS FUEL Source: Rashid Abdi Elmi (2013) Oslo kommune Vann- og avloppsvatten Source: Miljöfaktabok för bränslen (2011) IVL Svenska miljöinstitutet. Edited figure: Sylwia Klatka

BIOGAS AS FUEL Source: Biogas 2020 (2016) project Source: EBA (2015) Statistics Photo: Stormossen (2016)

VALUE CHAIN Biogas upgrading Biomethane for transport sector Less flaring Flaring is done by the gas engine Reconstruction of pre-treatment and heating District heating from Westenergy Less electricity consumption

STRATEGY First filling station for CNG-vehicles in the Vaasa region Upgrade biogas to bio-methane District heating for process heat Optimize biogas production Second filling station in the Vaasa region Increase substrate and biogas production Third filling station in the Vaasa region

SECOND FILLING STATION

TARGETS The Paris climate agreement adopted in December 2015 Limit global warming to well below 2 Celsius EU 2020 strategy, directive for renewable energy 10 % biofuel in transport EU 2030 40 % cut of greenhouse emissions 27 % share of renewable energy EU 2050 80-95 % reduction & 60 % reduction in transport DAFI - Directive on alternative fuels infrastructure 2025 CNG/CBG fueling stations 150 km and LNG/LBG fueling station 400 km Finland 50 000 CNG-vehicles by 2030 City of Vaasa to be CO2-neutral by 2035

MARKET 1,45 /kg = 0,97 /liter bensin 1,45 /kg = 1,10 /liter diesel Source: Lampinen (2016) CBG100 Source: Gasum (2017)

MARKET 33 GWh

MARKET In use 9% of 420 GWh Fuel demand in Ostrobothnia: 1465 GWh 420 GWh = 29 % Attitude towards CBG-use in the Vasa region

MARKET

CIRCULAR ECONOMY Source: BioGaC (2015) Skellefteå kommun and Biofuel region Västerbotten Västernorrland Österbotten T GRP (BRP)-effect, million 17 15 27 Earned income, million 5 4 8 Disposable income, million 3 2 5 Source: Biogas Botnia (2013) Samhällsekonomiska effekter av en utökad produktion och användning av biogas i Västerbottens län, Västernorrlands län och Österbottens landskap. Source: Svenskt vatten (2013) Vattenvisionen Effect on tax revenue, million. 2 2 3 Environmental effects, million 3 2 3 Employment, persons 110 90 180

SUSTAINABLE DEVELOPMENT GOALS

SUMMARY High quality fuel from waste, versatile, local and renewable Lots of unused potential and better than burning the organic waste Working technology with very low emissions Biomethane benefits from the development of LNG To achieve environmental goals biogas has to be strongly considered when planning use of natural gas Biogas can t be compared one to one in terms of energy production A possibility to replace artificial fertilizers System integration to create circular economies Photo: Mikko Lehtimäki

Thank you! Find out more at: www.stormossen.fi/gastor