Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico

Detalhes bibliográficos
Autor(a) principal: Martins, Thiago Rodrigues
Data de Publicação: 2019
Tipo de documento: Dissertação
Idioma: por
Título da fonte: Biblioteca Digital de Teses e Dissertações do UFSM
Texto Completo: http://repositorio.ufsm.br/handle/1/21358
Resumo: Technological development, although linked to quality of life improvement, results in the increase of waste electrical and electronical equipment, which cables and LED bulbs are part of. Thus, new approaches towards recycling and recovery of these materials are of great need. This work deals with the applying of mechanical processing operations for the separation of materials from coaxial cables and LED bulbs. For the coaxial cables, the following steps were utilized: characterization, comminution, sieving, magnetic separation and electrostatic separation. A comparative between two processes was established: I – comminution, sieving and electrostatic separation; and II – comminution, magnetic separation and electrostatic separation. The analyzed parameters were: roll speed, electrostatic electrode distance, voltage applied to the electrodes and splitter angle. The best results for each process electrostatic separation were found at: I - roll speed of 30 rpm, electrostatic electrode distance of 8 cm, voltage applied to the electrodes of 30 kV and splitter angle of 0°; II – roll speed of 10 rpm, electrostatic electrode distance of 10 cm, voltage applied to the electrodes of 25 kV and splitter angle of 2,5. Process I obtained purity of 99,51% for aluminum and 96,79% for copper-clad steel, with recovery efficiency of 94,53% and 99,68%, respectively. Process II achieved purity of 99,53% (copper-clad steel) and 96,51% (aluminum), with recovery efficiency of 99,46% for the first and 70,12% for the latter. Due to the high values of purity and recovery attained, Process I was considered more advantageous for the recycling of coaxial cables. For the LED bulbs recycling, stages of characterization, comminution, sieving, electrostatic separation, magnetic separation and gravimetric separation were included. In the electrostatic separation the parameters of roll speed, voltage applied to the electrodes and splitter angle were evaluated, with the best values found at 20 rpm, 30 kV and 0°, respectively. In the magnetic separation, the roll speed was evaluated, with the best value found at 50 rpm. Magnetic separation was also adapted for the use of a conveyor belt for the separation according to the magnetic susceptibility of the materials. For the gravimetric separation, a solution of potassium iodide 30% was enough for the system separation. The proposed process enabled the obtention and separation of all LED bulb components with high purity and recovery efficiency, with total separation of the components in some steps.
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spelling 2021-07-08T21:03:37Z2021-07-08T21:03:37Z2019-08-02http://repositorio.ufsm.br/handle/1/21358Technological development, although linked to quality of life improvement, results in the increase of waste electrical and electronical equipment, which cables and LED bulbs are part of. Thus, new approaches towards recycling and recovery of these materials are of great need. This work deals with the applying of mechanical processing operations for the separation of materials from coaxial cables and LED bulbs. For the coaxial cables, the following steps were utilized: characterization, comminution, sieving, magnetic separation and electrostatic separation. A comparative between two processes was established: I – comminution, sieving and electrostatic separation; and II – comminution, magnetic separation and electrostatic separation. The analyzed parameters were: roll speed, electrostatic electrode distance, voltage applied to the electrodes and splitter angle. The best results for each process electrostatic separation were found at: I - roll speed of 30 rpm, electrostatic electrode distance of 8 cm, voltage applied to the electrodes of 30 kV and splitter angle of 0°; II – roll speed of 10 rpm, electrostatic electrode distance of 10 cm, voltage applied to the electrodes of 25 kV and splitter angle of 2,5. Process I obtained purity of 99,51% for aluminum and 96,79% for copper-clad steel, with recovery efficiency of 94,53% and 99,68%, respectively. Process II achieved purity of 99,53% (copper-clad steel) and 96,51% (aluminum), with recovery efficiency of 99,46% for the first and 70,12% for the latter. Due to the high values of purity and recovery attained, Process I was considered more advantageous for the recycling of coaxial cables. For the LED bulbs recycling, stages of characterization, comminution, sieving, electrostatic separation, magnetic separation and gravimetric separation were included. In the electrostatic separation the parameters of roll speed, voltage applied to the electrodes and splitter angle were evaluated, with the best values found at 20 rpm, 30 kV and 0°, respectively. In the magnetic separation, the roll speed was evaluated, with the best value found at 50 rpm. Magnetic separation was also adapted for the use of a conveyor belt for the separation according to the magnetic susceptibility of the materials. For the gravimetric separation, a solution of potassium iodide 30% was enough for the system separation. The proposed process enabled the obtention and separation of all LED bulb components with high purity and recovery efficiency, with total separation of the components in some steps.Technological development, although linked to quality of life improvement, results in the increase of waste electrical and electronical equipment, which cables and LED bulbs are part of. Thus, new approaches towards recycling and recovery of these materials are of great need. This work deals with the applying of mechanical processing operations for the separation of materials from coaxial cables and LED bulbs. For the coaxial cables, the following steps were utilized: characterization, comminution, sieving, magnetic separation and electrostatic separation. A comparative between two processes was established: I – comminution, sieving and electrostatic separation; and II – comminution, magnetic separation and electrostatic separation. The analyzed parameters were: roll speed, electrostatic electrode distance, voltage applied to the electrodes and splitter angle. The best results for each process electrostatic separation were found at: I - roll speed of 30 rpm, electrostatic electrode distance of 8 cm, voltage applied to the electrodes of 30 kV and splitter angle of 0°; II – roll speed of 10 rpm, electrostatic electrode distance of 10 cm, voltage applied to the electrodes of 25 kV and splitter angle of 2,5. Process I obtained purity of 99,51% for aluminum and 96,79% for copper-clad steel, with recovery efficiency of 94,53% and 99,68%, respectively. Process II achieved purity of 99,53% (copper-clad steel) and 96,51% (aluminum), with recovery efficiency of 99,46% for the first and 70,12% for the latter. Due to the high values of purity and recovery attained, Process I was considered more advantageous for the recycling of coaxial cables. For the LED bulbs recycling, stages of characterization, comminution, sieving, electrostatic separation, magnetic separation and gravimetric separation were included. In the electrostatic separation the parameters of roll speed, voltage applied to the electrodes and splitter angle were evaluated, with the best values found at 20 rpm, 30 kV and 0°, respectively. In the magnetic separation, the roll speed was evaluated, with the best value found at 50 rpm. Magnetic separation was also adapted for the use of a conveyor belt for the separation according to the magnetic susceptibility of the materials. For the gravimetric separation, a solution of potassium iodide 30% was enough for the system separation. The proposed process enabled the obtention and separation of all LED bulb components with high purity and recovery efficiency, with total separation of the components in some steps.Coordenação de Aperfeiçoamento de Pessoal de Nível Superior - CAPESporUniversidade Federal de Santa MariaCentro de TecnologiaPrograma de Pós-Graduação em Engenharia QuímicaUFSMBrasilEngenharia QuímicaAttribution-NonCommercial-NoDerivatives 4.0 Internationalhttp://creativecommons.org/licenses/by-nc-nd/4.0/info:eu-repo/semantics/openAccessReciclagemCabos coaxiaisLâmpadas de LEDProcessamento mecânicoRecyclingCoaxial cablesLED bulbsMechanical processingCNPQ::ENGENHARIAS::ENGENHARIA QUIMICAReciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânicoRecycling of coaxial cables and LED bulbs by applying mechanical processing operationsinfo:eu-repo/semantics/publishedVersioninfo:eu-repo/semantics/masterThesisTanabe, Eduardo Hiromitsuhttp://lattes.cnpq.br/9778700143605069Bertuol, Daniel AssumpçãoMallmann, Evandro StoffelsWenzel, Bruno Münchenhttp://lattes.cnpq.br/4620183951020528Martins, Thiago Rodrigues300600000006600600600600600600b1b7f60b-aaa2-4374-9587-545c489aacb9a15fa23d-e80a-40c5-b665-9c6d3f3b49cafcabaa51-1ad1-439b-b057-9430cfe88209d6b0623c-d90d-4a2a-bb93-ddfb0cd4b2a720666b7e-5114-4456-9305-6749e758f37areponame:Biblioteca Digital de Teses e Dissertações do UFSMinstname:Universidade Federal de Santa Maria (UFSM)instacron:UFSMLICENSElicense.txtlicense.txttext/plain; charset=utf-816http://repositorio.ufsm.br/bitstream/1/21358/3/license.txtf8fcb28efb1c8cf0dc096bec902bf4c4MD53ORIGINALDIS_PPGEQ_2019_MARTINS_THIAGO.pdfDIS_PPGEQ_2019_MARTINS_THIAGO.pdfDissertaçãoapplication/pdf2266367http://repositorio.ufsm.br/bitstream/1/21358/1/DIS_PPGEQ_2019_MARTINS_THIAGO.pdfe72ee6444c265e9fa3baa95ef1e9b88fMD51CC-LICENSElicense_rdflicense_rdfapplication/rdf+xml; charset=utf-8805http://repositorio.ufsm.br/bitstream/1/21358/2/license_rdf4460e5956bc1d1639be9ae6146a50347MD52TEXTDIS_PPGEQ_2019_MARTINS_THIAGO.pdf.txtDIS_PPGEQ_2019_MARTINS_THIAGO.pdf.txtExtracted texttext/plain156270http://repositorio.ufsm.br/bitstream/1/21358/4/DIS_PPGEQ_2019_MARTINS_THIAGO.pdf.txt816659fe46adb2edacfe2b7f3355a9caMD54THUMBNAILDIS_PPGEQ_2019_MARTINS_THIAGO.pdf.jpgDIS_PPGEQ_2019_MARTINS_THIAGO.pdf.jpgIM Thumbnailimage/jpeg4150http://repositorio.ufsm.br/bitstream/1/21358/5/DIS_PPGEQ_2019_MARTINS_THIAGO.pdf.jpg24e64cd48c8abe9076bd917b4804cc5dMD551/213582021-07-09 03:02:30.722oai:repositorio.ufsm.br:1/21358Q3JlYXRpdmUgQ29tbW9ucw==Biblioteca Digital de Teses e Dissertaçõeshttps://repositorio.ufsm.br/ONGhttps://repositorio.ufsm.br/oai/requestatendimento.sib@ufsm.br||tedebc@gmail.comopendoar:2021-07-09T06:02:30Biblioteca Digital de Teses e Dissertações do UFSM - Universidade Federal de Santa Maria (UFSM)false
dc.title.por.fl_str_mv Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
dc.title.alternative.eng.fl_str_mv Recycling of coaxial cables and LED bulbs by applying mechanical processing operations
title Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
spellingShingle Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
Martins, Thiago Rodrigues
Reciclagem
Cabos coaxiais
Lâmpadas de LED
Processamento mecânico
Recycling
Coaxial cables
LED bulbs
Mechanical processing
CNPQ::ENGENHARIAS::ENGENHARIA QUIMICA
title_short Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
title_full Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
title_fullStr Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
title_full_unstemmed Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
title_sort Reciclagem de cabos coaxiais e lâmpadas de LED aplicando operações de processamento mecânico
author Martins, Thiago Rodrigues
author_facet Martins, Thiago Rodrigues
author_role author
dc.contributor.advisor1.fl_str_mv Tanabe, Eduardo Hiromitsu
dc.contributor.advisor1Lattes.fl_str_mv http://lattes.cnpq.br/9778700143605069
dc.contributor.advisor-co1.fl_str_mv Bertuol, Daniel Assumpção
dc.contributor.referee1.fl_str_mv Mallmann, Evandro Stoffels
dc.contributor.referee2.fl_str_mv Wenzel, Bruno München
dc.contributor.authorLattes.fl_str_mv http://lattes.cnpq.br/4620183951020528
dc.contributor.author.fl_str_mv Martins, Thiago Rodrigues
contributor_str_mv Tanabe, Eduardo Hiromitsu
Bertuol, Daniel Assumpção
Mallmann, Evandro Stoffels
Wenzel, Bruno München
dc.subject.por.fl_str_mv Reciclagem
Cabos coaxiais
Lâmpadas de LED
Processamento mecânico
topic Reciclagem
Cabos coaxiais
Lâmpadas de LED
Processamento mecânico
Recycling
Coaxial cables
LED bulbs
Mechanical processing
CNPQ::ENGENHARIAS::ENGENHARIA QUIMICA
dc.subject.eng.fl_str_mv Recycling
Coaxial cables
LED bulbs
Mechanical processing
dc.subject.cnpq.fl_str_mv CNPQ::ENGENHARIAS::ENGENHARIA QUIMICA
description Technological development, although linked to quality of life improvement, results in the increase of waste electrical and electronical equipment, which cables and LED bulbs are part of. Thus, new approaches towards recycling and recovery of these materials are of great need. This work deals with the applying of mechanical processing operations for the separation of materials from coaxial cables and LED bulbs. For the coaxial cables, the following steps were utilized: characterization, comminution, sieving, magnetic separation and electrostatic separation. A comparative between two processes was established: I – comminution, sieving and electrostatic separation; and II – comminution, magnetic separation and electrostatic separation. The analyzed parameters were: roll speed, electrostatic electrode distance, voltage applied to the electrodes and splitter angle. The best results for each process electrostatic separation were found at: I - roll speed of 30 rpm, electrostatic electrode distance of 8 cm, voltage applied to the electrodes of 30 kV and splitter angle of 0°; II – roll speed of 10 rpm, electrostatic electrode distance of 10 cm, voltage applied to the electrodes of 25 kV and splitter angle of 2,5. Process I obtained purity of 99,51% for aluminum and 96,79% for copper-clad steel, with recovery efficiency of 94,53% and 99,68%, respectively. Process II achieved purity of 99,53% (copper-clad steel) and 96,51% (aluminum), with recovery efficiency of 99,46% for the first and 70,12% for the latter. Due to the high values of purity and recovery attained, Process I was considered more advantageous for the recycling of coaxial cables. For the LED bulbs recycling, stages of characterization, comminution, sieving, electrostatic separation, magnetic separation and gravimetric separation were included. In the electrostatic separation the parameters of roll speed, voltage applied to the electrodes and splitter angle were evaluated, with the best values found at 20 rpm, 30 kV and 0°, respectively. In the magnetic separation, the roll speed was evaluated, with the best value found at 50 rpm. Magnetic separation was also adapted for the use of a conveyor belt for the separation according to the magnetic susceptibility of the materials. For the gravimetric separation, a solution of potassium iodide 30% was enough for the system separation. The proposed process enabled the obtention and separation of all LED bulb components with high purity and recovery efficiency, with total separation of the components in some steps.
publishDate 2019
dc.date.issued.fl_str_mv 2019-08-02
dc.date.accessioned.fl_str_mv 2021-07-08T21:03:37Z
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Centro de Tecnologia
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