From transport and storage to control of the process: the challenge of biodigestion from drawings of swine in agroindustrial scale

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José Carlos Souza Oliveira
صندلی اداری

Abstract

Biomass is one of the largest sources of energy available in agribusiness activities. Anaerobic biological degradation of organic matter, present in swine manure, produces a gaseous mixture of methane (CH4) and carbon dioxide (CO2).

Anaerobic biodigestion is one of the most effective methods for the treatment of manure, obtaining as biogas products; Substitute for some fuels; And biofertilizer; Rich in nutrients and applied in agriculture.

The conceptual simplicity of biodigestors does not bring light, the great complexity of chemical and physical processes. One of the main reasons for this complexity is the expressive amount of variables that must be monitored to guarantee better efficiency of these equipments. Among these variables, the values of biomass temperature, amount of gas generated, pH, residence time, among others, stand out.

Aspects related to the Logistics of transport and storage of biomass to Process Control methods, plus Cultural aspects, Professional Training, Creation of public policies, Maintenance of biodigesters, are challenges in the application of biodigestion for energy generation from waste Pigs on an agroindustrial scale.

The objective of this article is to analyze some factors that represent challenges to the application of biodigestion process for energy generation from swine waste on an agroindustrial scale, thus contributing to important reflection on the design and installation of biodigesters in agroindustrial activities.

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References

ALVES, R. T.; GUNTZEL, D. L.; REGHELIN, C. G.; BARICHELLO, R. (2010) Electricity generation with biogas: a practical case in swine.

ARRUDA, M. H.; AMARAL, L. P.; PIRES, O. P. J.; BARUFI, C. R. V. (2002) Dimensioning of biodigestor for alternative energy generation. Scientific Journal of Agronomy of the Faculty of Agronomy and Forest Engineering, Garça.

BARREIRA, P. (2001) Biodigestores: energy, fertility and sanitation for rural areas. 3. ed. São Paulo: Icon.

BARICHELLO, R.; HOFFMANN, R.; CASAROTTO, FILHO, N. B.; BERNARDI, F. (2011) The use of biodigestors in small and medium rural properties with emphasis on value aggregation: a case study in the northwest region of Rio Grande do Sul. XXXI National Meeting of Production Engineering, Technological Innovation and Intellectual Property: Challenges of Production Engineering in Consolidation of Brazil in the World Economic Scenario. Belo Horizonte, MG, Brazil.

BOHRZ, G. M. (2010) Generation in anaerobic pond: a case study in cattle slaughtering. Dissertation (Master in Process Engineering). Santa Maria: Federal University of Santa Maria

BRIDGWATER A. V. (2011) Review of fast pyrolysis of biomass and product upgrading. Aston University Bioenergy Research Group.

DARTORA, V.; PERDOMO, C. C.; TUMELERO, I. L. (1998) Management of swine manure. Research Bulletin - Embrapa Pigs and Birds - e Extension - EMATER / RS‖ BIPERS, v. 7, n. 11, p. 33, Concordia: Embrapa - CNPSA,

DENNIS, A.; BURKE, P. E. (2001) Dairy Waste Anaerobic Digestion Handbook. Environmental Energy Company. Olympia.

DEUBLEIN, D; STEINHAUSER, A. (2004) Biogas from waste and renewable resources: an introduction. Weinhein-Germany: Verlag GmbH & Co. KGaA

DIESEL, R.; MIRANDA, C. R.; PERDOMO, C. C. (2002) Collection of technologies on swine manure. Concordia: EMBRAPA - CNPSA / EMATER / RS

ECKENFELDER JR., W. W. (2000) Industrial water pollution control, 3 ed. New York: McGraw Hill

KUNZ, A.; OLIVEIRA, P. A. V. (2006) Utilization of animal waste for biogas generation. Journal of Agricultural Policy.

LENZ, R. F. Bioenergy. Methane from biomass. Joaçaba, Lindner / Hidráulica Industrial S / A., S.d. (Folders).

LI, Y.; PARK, S. Y.; ZHU, J. (2012) Solid-state anaerobic digestion for methane production from organic waste. Renewable and Sustainable Energy Reviews.

LIMA, H. Q. (2011) Evaluation of the Hashimoto and AMS-III.D models for methane production with swine manure. 2011. 100 f. Dissertation (Post-Graduation Program in Energy). Santo André: Federal University of ABC.

NEVES, V. L. V. (2010) Construction of biodigestor for the production of biogas from the fermentation of bovine manure. 57f. 2010. Course Completion Work (Faculty of Technology in Biofuels) - Faculty of Technology of Araçatuba, Araçatuba.

OLIVEIRA, P. A. V. (1993) Manual of handling and use of swine manure. Documents n. 27. Embrapa Pigs and Birds, Concordia: Embrapa

OLIVEIRA, P. A. V. (2004) Technologies for waste management in pig production - Manual of good practices. 01. ed. Concordia - SC: Embrapa. 109 p.

PALHARES, J. C. P. (2008) Anaerobic biodigestion of swine manure: learning from the past to understand the present and secure the future. Disponível: http://www.infobibos.com/Artigos/2008_1/Biodigestao/index.htm. Accessed on: 08/08/2016.

PINTO, C. P. (1999) Anaerobic digestion technology of vinasse and sustainable development. 162f. Dissertation (Master in Planning of Energy Systems) - State University of Campinas, Campinas.

RODRIGUES, C. D. (2010) Analysis of the feasibility of biodigestor implantation in Volkswagen do Brasil - Anchieta Plant - São Bernardo do Campo - SP. "A case study". 55 f. São Paulo.

SANT'ANA, P. H. M; BAJAY, S. V. (2013) New Approaches to Energy Efficiency Programs in the Brazilian Industry. Brazilian Energy Energy Review, v. 19, n. 1, p. 77-89.

SEGANFREDO, M. A. (2000) Analysis of the risks of environmental pollution when using pig manure as soil fertilizer, 3p. Technical Communication - Embrapa Pigs and Poultry.

VON SPERLING, M. (2005) Principles of biological treatment of wastewater Introduction to water quality and sewage treatment. 3. ed. Belo Horizonte: Department of Sanitary and Environmental Engineering - UFMG, 452 p.

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