Effective Use of Excess Heat in a Cement Plant
The report investigates the feasibility of accessing waste heat at kiln 7 in the Cementa AB cement plant in Slite, Gotland. The background is provided, with a description of the cement manufacturing process. Most of the report concerns itself with the heat transfer capabilities of the plant, therefo...
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KTH, Tillämpad termodynamik och kylteknik
2012
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ndltd-UPSALLA1-oai-DiVA.org-kth-1040802013-01-08T13:44:55ZEffective Use of Excess Heat in a Cement PlantengTerblanche, UlrichKTH, Tillämpad termodynamik och kylteknik2012cement manufacturingheat recoverykilndistrict heatingelectricity generationenergy efficiencyclinker coolerThe report investigates the feasibility of accessing waste heat at kiln 7 in the Cementa AB cement plant in Slite, Gotland. The background is provided, with a description of the cement manufacturing process. Most of the report concerns itself with the heat transfer capabilities of the plant, therefore a short description of the heat flow within the most essential equipment is provided. The investigation follows a set of steps to derive the conclusion. The first step investigates previous studies to obtain the three most feasible heat sources. The second step investigates the available heat of the selected sources. In the third step, accessing the source is discussed and investigated for both convection and radiation heat transfer methods. It also includes the sizing of the required heat exchangers. Using the new sources, the connection possibilities to existing infrastructure and its benefits are investigated in step four. The connections were made to the existing infrastructure used at kiln 8 for electrical generation and district heating supply. The selections of the most feasible solutions are provided based on heat recovery, payback period and practicality. The final step in the study provides for the final design, which consists of three possible connections or all of them combined. In the conclusion, the final design would provide for a reduction in oil burned, fuel consumption and CO2 emissions and an increase in electricity generated by the existing system. It is recommended that only one of the three connections be installed. <p>The thesis was conducted at Cementa AB in Slite, Gotland. The supervisor at the plant was Fred Grönwall.</p>Student thesisinfo:eu-repo/semantics/bachelorThesistexthttp://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-104080application/pdfinfo:eu-repo/semantics/openAccess |
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cement manufacturing heat recovery kiln district heating electricity generation energy efficiency clinker cooler |
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cement manufacturing heat recovery kiln district heating electricity generation energy efficiency clinker cooler Terblanche, Ulrich Effective Use of Excess Heat in a Cement Plant |
description |
The report investigates the feasibility of accessing waste heat at kiln 7 in the Cementa AB cement plant in Slite, Gotland. The background is provided, with a description of the cement manufacturing process. Most of the report concerns itself with the heat transfer capabilities of the plant, therefore a short description of the heat flow within the most essential equipment is provided. The investigation follows a set of steps to derive the conclusion. The first step investigates previous studies to obtain the three most feasible heat sources. The second step investigates the available heat of the selected sources. In the third step, accessing the source is discussed and investigated for both convection and radiation heat transfer methods. It also includes the sizing of the required heat exchangers. Using the new sources, the connection possibilities to existing infrastructure and its benefits are investigated in step four. The connections were made to the existing infrastructure used at kiln 8 for electrical generation and district heating supply. The selections of the most feasible solutions are provided based on heat recovery, payback period and practicality. The final step in the study provides for the final design, which consists of three possible connections or all of them combined. In the conclusion, the final design would provide for a reduction in oil burned, fuel consumption and CO2 emissions and an increase in electricity generated by the existing system. It is recommended that only one of the three connections be installed. === <p>The thesis was conducted at Cementa AB in Slite, Gotland. The supervisor at the plant was Fred Grönwall.</p> |
author |
Terblanche, Ulrich |
author_facet |
Terblanche, Ulrich |
author_sort |
Terblanche, Ulrich |
title |
Effective Use of Excess Heat in a Cement Plant |
title_short |
Effective Use of Excess Heat in a Cement Plant |
title_full |
Effective Use of Excess Heat in a Cement Plant |
title_fullStr |
Effective Use of Excess Heat in a Cement Plant |
title_full_unstemmed |
Effective Use of Excess Heat in a Cement Plant |
title_sort |
effective use of excess heat in a cement plant |
publisher |
KTH, Tillämpad termodynamik och kylteknik |
publishDate |
2012 |
url |
http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-104080 |
work_keys_str_mv |
AT terblancheulrich effectiveuseofexcessheatinacementplant |
_version_ |
1716527709624991744 |