Valorisation of side streams and novel products from papermills using paper for recycling

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Valorisation of side streams and novel products from papermills using paper for recycling Spyros Bousios, Bumaga, the Netherlands Workshop on 19 th of April 2016, Darmstadt, Germany 1

Sidestream valorisation within REFFIBRE REFFIBRE focuses on development of models, methodologies and tools for eco-designed paper production Sidestream valorisation demonstration cases will validate the developed tools On this basis: selection for demonstration of innovative valorisation ideas that could be realised in the short term 2

Evolution of the paper mill: Yesterday Paper mill Limited raw materials (Wood: cellulose or paper for recycling) Paper as the only product Maximising production, minimising waste External waste management: expensive! (landfilling, incineration) Motto: Pay attention only to the fraction of the raw material that is useful for the only product 3

Evolution of the paper mill: Today Paper mill Paper mill + Valorisation of sidestreams Several new raw materials added Sidestreams get a value (although frequently only less negative or 0) New markets and value chains come into existence Motto: Give a value to sidestreams (mostly non-fibre fraction of the raw material) 4

Evolution of the paper mill: Tomorrow Paper mill + Valorisation of sidestreams MIMO mill Transition from sidestreams to on-spec produced sideproducts Reconfiguration of processes so as to fully valorise (new) raw materials in new, additional products Motto: Everything out of the inputs (incl. wood cellulose and paper for recycling) is converted into a variety of products (incl. paper & board) 5

(R)Evolution of sidestreams Next steps: Extraction of valuable components out of process streams and/or sidestreams Adjustment of primary process: producing sidestreams or products on-spec Not thinking from our point of view, but from that of the end user Yesterday Raw material Energy Tomorrow Raw material Energy Process A Process Process B Side streams Product Waste Product Product 6

Volume vs. Value Value Fine chemicals/pharma Food/Feed Biomaterials Bulk chemicals Electricity/Heat/Fuels PBI tomorrow PBI today Market volume 7

Input Rejects Sludge Water Process type Mechanical Thermal Chemical Biological Process Incineration Pyrolysis Gasification Platform product Oil Heat & Power Chemicals Fuels... 8

Rejects Sludge Water Mechanical Thermal Chemical Biological Acid hydrolysis Enzymatic hydrolysis Nanocellulose Sugars Paper & Board Composites. FDCA Ethanol Lactic acid Levulinic acid 9

But, there is a whole process! Technically feasible? Market dynamics? Current sources and applications? Current incomes from the sidestreams? Necessary investments? Regulatory framework? Incomes from the products? Production costs? Value chain partners? 10

The REFFIBRE approach How to narrow down a (very) long list of possibilities? 2 criteria: TRL, not too high, not too low Economic potential As a result: choices that can be realised in the short-term 11

Pyrolysis Thermal treatment of organic matter in the absence of oxygen Oil Products Gas Char Various types primarily on the basis of residence time and temperature -> influence on products ratio 12

Sludges 13

Pyrolysis Benefits for a paper mill: Avoided sidestream disposal costs (sludges/rejects) Indicative case 1,500 kg/h dry sludge Revenues from pyrolysis products Sold to 3rd parties Avoided energy costs (internal steam/electricity generation) >1 M in revenues/avoided costs Ca. 1-1.5 M investment in pyrolysis unit Revenues from reclaimed materials Metals Fillers (sold to 3rd parties or internal reuse) + Sludge dryer 14

Wood Plastic Composites Wood fibre + thermoplastic material (PE/PP/PVC/ ) Also recycled plastics Main production processes: extrusion or injection moulding Growing production: 220 kt (2010) -> 350 kt (2015) in Europe But what can we make with them? 15

16

Wood Plastic Composites Economic potential of this route: What kind of end product? How high sidestream content? Drying of sidestreams? End application: not only strength important! Colour Odour Adherence to regulations (e.g. volatile compounds) Close cooperation with market parties required so as to identify the right applications 17

Sidestream fractionation Great problem of sidestream valorisation: inhomogeneous composition Possibility to separate various fractions out of the sludge stream: Fibres Fines of two types: good and bad Fillers Example of Dutch tissue DIP residue: 16% recoverable fibres, 10-15% good fines, filler fraction with 85% purity 18

Sidestream fractionation Fractionation can make various routes possible: Reuse own lost fibres, without adverse process effects Supply fibres or fines to other neighbouring paper mills Offer ash-free cellulosic sidestreams to other parties (e.g. chemical industry) Limit problems with on-site sludge incineration 19

So, in the end or Waste does not exist. 20

Acknowledgement The research leading to these results has received funding from the European Community's Seventh Framework Programme under grant agreement n 604187. 21