• Vol 6, No 5 (2015)
  • Chemical Engineering

Reject Waste Pellets of Paper Mills as Fuel and their Contribution to Greenhouse Gas (GHG)

Yusup Setiawan, Aep Surachman


Cite this article as:

Setiawan, Y., & Surachman, A. 2018. Reject Waste Pellets of Paper Mills as Fuel and their Contribution to Greenhouse Gas (GHG). International Journal of Technology. Volume 6(5), pp.847-855

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Yusup Setiawan 1 Center for Pulp and Paper (CPP), Jl. Raya Dayeuhkolot No. 132, Bandung 40258, Indonesia
Aep Surachman 1 Center for Pulp and Paper (CPP), Jl. Raya Dayeuhkolot No. 132, Bandung 40258, Indonesia
Email to Corresponding Author

Abstract
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The paper-recycling process of paper mills generates reject waste in the region of 5-25% of its raw material, depending on the recovered fiber quality and process used in the mill. We carried out an assessment of the paper industry’s reject waste pellets (RWP) as a boiler fuel. Reject waste was identified by means of sorting. The pelletizing of paper mills’ reject waste is a solidification process, as it is easier to store, handle, and transport solid waste. We analyzed the approximate calorific value and the sulphur content of reject waste pellets. The results showed that the components of reject waste are largely comprised of 51% fibers and 49% plastic. The plastic components of are dominated by the high density poly ethylene (HDPE) plastic type. RWP contains a lot of organic matter and has a high calorific value and low sulphur content, which gives it the potential of being used as fuel. Utilization of 10% RWP mixed with 90% coal as boiler fuel could reduce CO2 gas as greenhouse gas (GHG) emissions by about 9%.

Coal, CO2, Greenhouse gas, Pellet, Reject waste

References

Budiraharjo, I., 2009. Slagging and Fouling. Available online at http://www.wordpress.com, Accessed on October 8, 2013

Center for Green Industry and Environment Assessment (CGIEA), 2011. Carbon Calculation Guidelines for the Pulp and Paper Industry in Implementation of Energy Conservation and CO2 Emission Reduction in the Industrial Sector (Phase 1). Agency for Industrial Policy, Climate Change and Quality Assessment, Ministry of Industry, pp. 33–71

Exler, J., 2008. Chemistry of Polymer. Available online at http://www.ccmr.cornell.edu. Accessed on June 7, 2013

Gavrilescu, D., 2008. Energy from Biomass in Pulp and Paper Mills. Environmental Engineering and Management Journal, Volume 7(5), pp. 537–546

Hare, N., Rasul, M.G., Moazzem, S., 2010. A Review on Boiler Deposition/Foulage Prevention and Removal Techniques for Power Plant, Recent Advances in Energy and Environment. In: Proceedings of the 5th IASME/ESEAS International Conference on Energy & Environment (EE’10), pp. 217–222

Hiltunen, M. Bari?i?, V., Coda Zabetta, E., 2010. Combustion of Different Types of Biomass in CFB Boilers. Available at http://www.Researchgate.com, Accessed on December 8, 2014

Indonesian Pulp and Paper Association (IPPA) Directory, 2011. Indonesian Pulp & Paper Industry: Directory 2011, pp. 12–26

Lu, G.Q., Do, D.D., 1991. A Kinetic Model for Coal Reject Pyrolysis at Low Heating Rates. Journal of Fuel Processing Technology, Volume 28(1), pp. 35–48

Miles, T.R., Baxter, L.L., Bryers, R.W., Jenkins, B.M., Oden, L.L., 1995. Alkali Deposit. Summary Report for National Renewable Energy Laboratory, US Department of Energy

National Council for Air and Stream Improvement, Inc. (NCASI), 2005. Calculation Tools for Estimating Greenhouse Gas Emissions from Pulp and Paper Mills, Version 1.1, NC, USA: Research Triangle Park

Nichol, W.E., Flander, L.N., 1994. An Evaluation of Pelletizing Technology or How to Convert Trash to Fuel. TAPPI Proceeding of Engineering Conference, pp. 915–921

Nobuyuki, N., Hiroyuki, S., 2011. CFB Combustion Control System for Multiple Fuels. JFE Technical Report, No. 16 (Mar. 2011)

Onno, K., 2006. Environmental Innovation Dynamic in the Pulp and Paper Industry. European Commission. DG Environment. Institute for Environmental Studies, Vrije Universiteit de Boelelaan, Amsterdam, Netherlands

Oudi, M., Brammer, J., Hornung, A., Kay, M., 2012. Waste to Power. Tappi Journal, Volume 11(2), pp. 55–64

Parthiban, K.K., 2011. Innovative Solution for Controlling Slagging and Fouling in Coal Fired Coal BFBC and CFBC Boilers. Available at http://www.venus-boiler.com, Accessed on December 8, 2014

Roderick, H.M., 1990. Fireside Deposits in Coal-fired Utility Boilers. Prog. Energy Combust. Sci., Volume 16, pp. 235–241

Samson, R., Duxbury, P., Drisdelle, M., Lapointe, C. 2000. Assessment of Pelletized Biofuels. Available online at http://www.pelletstove.com, Accessed on September 19, 2012

Takenaka, M., 2009. Waste Plastic Solid Fuel: RPF (Refused Paper and Plastic Fuel). Available online at http://www2.gec.jp., Accessed on February 8, 2012

Thacker, W.E., 2000. Beneficial Use OCC and Poly Reject. 2000 International Environmental Conference and Exhibit, Volume One, pp. 39–53

Tim Kajian Batubara Nasional, Pusat Litbang Teknologi Mineral dan Batubara (Tekmira), 2006. Batubara Indonesia. Availbale online at www.tekmira.esdm.go.id., Accessed on April 27, 2012

Tshifhiwa, M., 2008. Identification of Sintering and Slagging Materials: Characterization of Coal, Ash and Non-coal Rock Fragments. School of Chemical and Metallurgical Engineering, Faculty of Engineering and the Built Environment, University of the Witwatersrand, Johannesburg

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