Theoretical Analysis of Temperature Rising for Chilled Water in the Long Distance Transport Pipelines in Coal Mine

In order to provide sufficient cooling capacity for working and heading faces of the coal mine, chilled water is often transported a long distance along pipelines in deep mine, which inevitably results in its temperature rising owing to heat transfer through pipe wall and the friction heat for flow...

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Veröffentlicht in:Archives of Mining Sciences 2019-01, Vol.64 (4), p.785
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Song, Xin
description In order to provide sufficient cooling capacity for working and heading faces of the coal mine, chilled water is often transported a long distance along pipelines in deep mine, which inevitably results in its temperature rising owing to heat transfer through pipe wall and the friction heat for flow resistance. Through theoretical models for temperature increasing of the chilled water were built. It is pointed out that the temperature rising of the chilled water should be considered as a result of the synergy effects of the heat transfer and the friction heat, but theoretical analysis shows that within engineering permitting error range, the temperature increasing can be regarded as the sum caused by heat transfer and fraction heat respectively, and the calculation is simplified. The calculation analysis of the above two methods was made by taking two type of pipe whose diameters are De273 × 7 mm and De377 × 10 mm, with 15 km length in coal mine as an example, which shows that the error between the two methods is not over 0.04°C within the allowable error range. Aims at the commonly used chilled water diameter pipe, it is proposed that if the specific frictional head loss is limited between 100 Pa/m and 400 Pa/m, the proportion of the frictional temperature rising is about 24%~81% of the total, and it will increase with high flow velocity and the thin of the pipe. As a result, the friction temperature rising must not be ignored and should be paid enough attention in calculation of the chilled water temperature rising along pipe.
doi_str_mv 10.24425/ams.2019.131066
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Through theoretical models for temperature increasing of the chilled water were built. It is pointed out that the temperature rising of the chilled water should be considered as a result of the synergy effects of the heat transfer and the friction heat, but theoretical analysis shows that within engineering permitting error range, the temperature increasing can be regarded as the sum caused by heat transfer and fraction heat respectively, and the calculation is simplified. The calculation analysis of the above two methods was made by taking two type of pipe whose diameters are De273 × 7 mm and De377 × 10 mm, with 15 km length in coal mine as an example, which shows that the error between the two methods is not over 0.04°C within the allowable error range. Aims at the commonly used chilled water diameter pipe, it is proposed that if the specific frictional head loss is limited between 100 Pa/m and 400 Pa/m, the proportion of the frictional temperature rising is about 24%~81% of the total, and it will increase with high flow velocity and the thin of the pipe. As a result, the friction temperature rising must not be ignored and should be paid enough attention in calculation of the chilled water temperature rising along pipe.</description><identifier>ISSN: 0860-7001</identifier><identifier>EISSN: 1689-0469</identifier><identifier>DOI: 10.24425/ams.2019.131066</identifier><language>eng</language><publisher>Warsaw: Polish Academy of Sciences</publisher><subject>Analysis ; Coal ; Coal mines ; Coal mining ; Distance ; Flow resistance ; Flow velocity ; Friction ; Heat transfer ; High flow ; Methods ; Pipelines ; Pipes ; Submarine pipelines ; Theoretical analysis ; Water ; Water temperature</subject><ispartof>Archives of Mining Sciences, 2019-01, Vol.64 (4), p.785</ispartof><rights>2019. This work is licensed under https://creativecommons.org/licenses/by-sa/4.0/ (the “License”). 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Through theoretical models for temperature increasing of the chilled water were built. It is pointed out that the temperature rising of the chilled water should be considered as a result of the synergy effects of the heat transfer and the friction heat, but theoretical analysis shows that within engineering permitting error range, the temperature increasing can be regarded as the sum caused by heat transfer and fraction heat respectively, and the calculation is simplified. The calculation analysis of the above two methods was made by taking two type of pipe whose diameters are De273 × 7 mm and De377 × 10 mm, with 15 km length in coal mine as an example, which shows that the error between the two methods is not over 0.04°C within the allowable error range. 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subjects Analysis
Coal
Coal mines
Coal mining
Distance
Flow resistance
Flow velocity
Friction
Heat transfer
High flow
Methods
Pipelines
Pipes
Submarine pipelines
Theoretical analysis
Water
Water temperature
title Theoretical Analysis of Temperature Rising for Chilled Water in the Long Distance Transport Pipelines in Coal Mine
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