The BEKON Process. Innovative biogas plants for energy production from organic waste _BEKON_Process_EN

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The BEKON Process Innovative biogas plants for energy production from organic waste. 20170821_BEKON_Process_EN EN

THE CONCEPT BEKON dry fermentation The BEKON dry fermentation process provides efficient and modular systems for the biogas generation from waste materials. It is the ideal solution for municipalities, private waste management companies and agriculture. Biogas the superior alternative to landfilling and incineration The international waste industry works with powerful technologies and sophisticated systems. The requirements for those are constantly synonym due to stricter legislation and growing complexity of waste streams. At the same time, awareness for environmentally friendly and cost-effective energy production is synonym. The BEKON biogas plants offer the possibility of modern and efficient biogas generation by using dry fermentation technology. Dry fermentation is a sustainable and low alternative compared to incineration. BEKON dry fermentation plants achieve high and constant biogas production through the fermentation of solid Inputes (e.g. source separated organics, garden waste, organic fraction of municipal solid waste, manure on bedding and other stackable organic waste) while consuming very small amounts of energy for plant operation. The cost-effective and environmentally friendly production of energy clearly distinguishes this technology from other forms of organic waste treatment. 2 3

TECHNOLOGY TECHNOLOGY 1 highest quality lowest susceptibility 9 10 11 2 3 1 2 3 4 5 Flare Percolate fermenter Exhaust stack CHP Pump sump 6 Equipment walkway 7 Purging air / Exhaust gas 8 Floor heating 9 Wall heating 10 Biogas storage 11 Technical containers continuous production high profitability simple operation high safety standard variable plant size from 3,000 to > 150,000 tons per year digestate residue is well suited for the subsequent composting 8 7 6 no press water 4 The efficient operation 5 BEKON systems are characterized by their reliability, low investment and operating costs and their high economic efficiency. Only a fraction of the energy generated is consumed by the plant itself. In addition, the process provides digestate with very good structural properties and comparatively low water content which are optimally suited for aerobic conditioning and further treatment into compost or fertilizer. BEKON systems are thus perfectly suitable for the production of biogas and compost. Percolation or Digestate operation process BEKON plants provide the optimal process for each type of input material. For a structure-rich material that can be ventilated easily, the percolation process is particularly suitable. In the percolation process, the inoculation of the waste is achieved by an increased percolation rate. The temperature is controlled by the injection of air at the beginning of the process after a fermenter change and the integrated heating system. The digestate process is appropriate for materials with higher water content and / or poor structure. The temperature is controlled by the heating system integrated in the concrete floor and walls, and the inoculation is achieved by the recirculation of approximately 40 % of the digestate. This recirculation of digestate allows for a minimized percolation rate. The space requirements are approximately the same for both processes. Optional features ensure customized solutions Every project is unique. By supplementing standardized technology with optional equipment, we create cost-effective tailor-made systems. For example, a thermophilic operation of the plant can optimize gas yield and enables the hygienization of the organic waste during the fermentation process. The BEKON dry fermentation in proven design Your advantages: Percolation process for structure-rich materials Aeration possible Percolate drains well Digestate process for structurally poor inputs Aeration not possible Percolate drains poorly Dry fermentation is a reliable and biologically stable process. BEKON plants are known for their particularly high economic efficiency and a simple and robust operation. Years of experience in turn-key construction and own operation as well as the continuous development of the processes convince customers worldwide of the quality of our technology, which is used for the expansion of composting plants and for new green field projects. The multitude of national and international references and high customer satisfaction is reflecting the success of the BEKON technology. high biogas production dry digestate residues low parasitic energy demand highest plant availability high degree of automation low investment cost short construction period Green waste Rural source separated organics Selection of Percolation Process Inoculation by percolate Urban source separated organics Manure on bedding Selection of Digestate Process Inoculation by digestate residue Heating by aerobic start-up, floor heating and percolate Heating by floor and wall heating 4 5

TECHNOLOGY TECHNOLOGY Process description Pre-treatment Fermentation End of fermentation process For the BEKON process no pre-treatment is necessary. In order to increase throughput and biogas yield, a screen (80-100 mm), a slow-speed shredder or a bag opener can be used depending on the waste properties. A massive shredding and/or addition of water is not necessary since the input does not have to be brought into a pumpable condition. Start of fermentation process The fermenter tunnel is filled by a wheel loader. The process starts either by inoculation with digestate or by an aerobic self-heating, followed by increased percolation with anaerobic process liquid. The optimum process temperature (mesophilic or thermophilic) is achieved through the large contact surfaces of the floor and wall heating system and enables a very high decomposition of the material. The intensive inoculation with digestate and / or percolate leads to a rapid start of the anaerobic digestion process and therefore to a high biogas yield. The gas mixture accumulating within the early fermentation phase can directly be delivered to the gas storage unit, since all dry fermenters are operated in a batch process with a phased starting point. The large biogas storage unit buffers the discontinuous biogas production of the individual fermenters. To facilitate the fermentation process, the percolate is sprayed evenly over the input via a special nozzle system. The effective discharge of the percolate is ensured via the floor gradient to the back, drain channels and perforated drainage segments on the fermenter side walls. To optimize the drainage, the input can be flushed with biogas through the aerated spigot floor system. The percolate is collected in the heated percolate fermenter from where it is sprayed again over the input in the fermenter. After three to four weeks, the biogas production in the fermenter diminishes. At this time, the percolation is stopped and the fermenter is aerated or alternatively inerted. The biogas-exhaust mixture is initially routed to the biogas storage until the methane content gets too low. The mixture then is flared by a lean-gas flaring system. Subsequently, the digestate is removed from the fermenter tunnels with a wheel loader. To ensure safe working conditions and emission protection, the fermenters are ventilated during the filling and emptying operations with a three-time air exchange rate. The exhaust air is treated by a biofilter. The solid digestate is a well-drained residue in a stackable consistency which can be further composted to a marketable product. BEKON optimal heat utilization accelerated fermentation process short piping routes low space requirements variable plant size from 3,000 to > 150,000 tons per year Additional advantages: low parasitic energy demand low investment costs minimized operation and maintenance thermophilic operation with hygienized end products according to bio-waste regulations partly redundant system automatic filling possible Biomass CH4 content [%] Digestate Process liquid in circulation (percolate) CH4 content in the biogas of a fermenter Filling the fermenters in batch operation The organic waste is tipped and collected in a delivery building and then filled into the garage-shaped fermenter by a wheel loader. The cell liquid (percolate) accumulating during the fermentation is collected by a drain system and reintroduced into the fermentation process. The biomass temperature is controlled through a wall and floor heating system, thus optimizing the living conditions of the microorganisms for biogas production in the fermenter without the need for further mixing of the biomass or the addition of further material. After filling, the fermenter is sealed with a gas tight door and the fermentation process starts. Continuous production of fed into the electricity electricity and heat network or can be directly The generated biogas is marketed. Only a small normally used in a combined amount of the waste heat heat and power system generated is required for (CHP) to produce electricity the self-consumption of the and heat. The continuous plant. Most of the thermal operation of the CHP is energy can be used ensured by time-shifted externally, e.g. for feeding filling and operation of the into a local or district fermenters. The biogas is heating grid or for drying temporarily stored in a materials. biogas storage for a few hours. Depending on the applicable laws, the generated electricity can be Continuous biogas yields in batch operation Biogas yield F 1 F 2 F 3 F 4 F 5 F 6 F 7 F 8 Production of biomethane As an alternative to electricity and heat generation, the biogas can be processed into biomethane and subsequently fed into the natural gas grid or used as a compressed natural gas fuel. The energy generated can thus be stored and used in a variety of ways. Biogas Compost / Fertiliser Process time Sale Process duration [days] 7

REFERENCES REFERENCES Exemplary references GERMANY ITALY PORTUGAL Munich pilot plant 190 kw 6,500 t/a In operation since 2003 Munich extension 570 kw after expansion 25,000 t/a In operation since 2007 Erfurt 660 kw 20,000 t/a In operation since 2008 Rendsburg 1,050 kw 30,000 t/a In operation since 2008 Pohlsche Heide Gas processing 500 Nm 3 /h 40,000 t/a Schmölln Input Renewables 16,000 t/a Mainz 1,200 kw 40,000 t/a In operation since 2012 Hamburg Gas processing 700 Nm 3 /h 60,000 t/a In operation since 2013 Steinfurt 1,054 kw 45,000 t/a In operation since 2013 Rendsburg extension 1,175 kw after expansion 64,000 t/a In operation since 2017 Cesena Neapel In operation since 2011 Rimini In operation since 2012 Voltana In operation since 2012 Enna Input OFMSW* 2 599 kw 20,000 t/a Under construction MEXICO Culiacan, Sinaloa Input Agricultural waste 100 kw 4,500 t/a In operation since 2016 POLAND Posen 716 kw 24,000 t/a In operation since 2016 Valnor Input OFMSW* 2 500 kw 25,000 t/a In operation since 2011 SWITZERLAND Baar 526 kw 18,000 t/a Thun 950 kw 20,000 t/a In operation since 2010 Galmiz 150 kw 4,500 t/a In operation since 2015 Krauchthal Input Green Waste 440 kw 12,000 t/a In operation since 2017 * 1 SSOW: Source segregated organic waste * 2 OFMSW: Organic fraction of municipal solid waste Steinfurt Erfurt Galmiz Posen Munich Bassum Baar Cesena Thun Vechta Neapel Pohlsche Heide GVoA BOO projects of the Eggersmann Group Nieheim 780 kw 24,000 t/a In operation since 2007 Gütersloh 800 kw In operation since 2011 Iffezheim 527 kw 18,000 t/a In operation since 2013 Dresden 800 kw 31,000 t/a In operation since 2016 Enger 160 kw 8,500 t/a Under construction MORE THAN 50 PLANTS IN OPERATION High-quality process and technology Durable design Complete thermal insulation of the entire system Spacious fermenter height for comfortable working with the wheel loader Efficient and gentle heat transfer via surface heating and percolate Design conforms to the water protection requirements Compact construction of building and mechanical equipment with very short pipe connections All pipelines above ground (biogas, percolate, condensate, exhaust air) in stainless steel Measurement technology for process monitoring and industrial safety according to industrial standards (Biogas analysis multiplex system, hydrostatic fermenter pressure, temperature, gate seal pressure, ph value, filling levels in the percolate fermenter, gas storage, IDM-percolate measurement, biogas volume flow measurement) Modern plant control system, (Siemens S7, Profibus, process control system with PC viualization) Comprehensive process documentation for evaluation, archiving and process tracking Convincing safety concept and external third party inspections Almost complete minimization of methane losses 8 9

EGGERSMANN EGGERSMANN BEKON dry fermentation systems can be combined with many other products of the Eggersmann Group: Mobile and stationary recycling machines Mechanical treatment Composting Eggersmann is your one-stop shop. 10 11

BEKON GmbH Feringastraße 9 85774 Unterföhring/Munich Germany Fon +49 89 90 77 959-0 Fax +49 89 90 77 959-29 kontakt@bekon.eu www.bekon.eu Find us on