Acidity in Rainwater: Has an Explanation Been Presented?

The recent report by Likens and Bormann points out the ecological problems that are associated with acid rain. It cannot be disputed that the tall smokestacks introduced in recent years disperse the emitted SO/sub 2/ over a broader area. Whether there has been an increase in acidity in the rainwater...

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Veröffentlicht in:Science (American Association for the Advancement of Science) 1975-05, Vol.188 (4191), p.957-958
Hauptverfasser: Newman, Leonard, Likens, Gene E., Bormann, F. Herbert
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container_issue 4191
container_start_page 957
container_title Science (American Association for the Advancement of Science)
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creator Newman, Leonard
Likens, Gene E.
Bormann, F. Herbert
description The recent report by Likens and Bormann points out the ecological problems that are associated with acid rain. It cannot be disputed that the tall smokestacks introduced in recent years disperse the emitted SO/sub 2/ over a broader area. Whether there has been an increase in acidity in the rainwater of rural areas in the northeastern US has not been documented in the data of Likens and Bormann. The authors, however, do show 70% decrease in SO/sub 4//sup 2 -/ since 1950 in rainwater at Ithaca, New York. This change is probably correctly attributed to the shift in use from coal to natural gas. The statement is made that the drop in the sulfur concentration is difficult to reconcile with the proposed recent increase in acidity. The contention is then made that high particulate loadings from the combustion of coal in the past could have caused neutralization of the acid sulfate. Likens and Bormann further conclude that the installation of particle-removing devices in tall smokestacks eliminates these alkaline substances, consequently permitting appreciable quantities of SO/sub 2/ to be converted to acid. This argument cannot be correct. Modern electrostatic precipitators remove approx. 99% of the ash. This increase in particulate removal is hardly enough to be significant for the enormous difference in neutralization proposed by the authors. Certainly, the introduction of tall smokestacks and particulate-removal devices have reduced the local soot problem. Whether these procedures have altered (positively or negatively) the regional acid problem is an unanswered question.
doi_str_mv 10.1126/science.188.4191.957
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The contention is then made that high particulate loadings from the combustion of coal in the past could have caused neutralization of the acid sulfate. Likens and Bormann further conclude that the installation of particle-removing devices in tall smokestacks eliminates these alkaline substances, consequently permitting appreciable quantities of SO/sub 2/ to be converted to acid. This argument cannot be correct. Modern electrostatic precipitators remove approx. 99% of the ash. This increase in particulate removal is hardly enough to be significant for the enormous difference in neutralization proposed by the authors. Certainly, the introduction of tall smokestacks and particulate-removal devices have reduced the local soot problem. 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The statement is made that the drop in the sulfur concentration is difficult to reconcile with the proposed recent increase in acidity. The contention is then made that high particulate loadings from the combustion of coal in the past could have caused neutralization of the acid sulfate. Likens and Bormann further conclude that the installation of particle-removing devices in tall smokestacks eliminates these alkaline substances, consequently permitting appreciable quantities of SO/sub 2/ to be converted to acid. This argument cannot be correct. Modern electrostatic precipitators remove approx. 99% of the ash. This increase in particulate removal is hardly enough to be significant for the enormous difference in neutralization proposed by the authors. Certainly, the introduction of tall smokestacks and particulate-removal devices have reduced the local soot problem. 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The authors, however, do show 70% decrease in SO/sub 4//sup 2 -/ since 1950 in rainwater at Ithaca, New York. This change is probably correctly attributed to the shift in use from coal to natural gas. The statement is made that the drop in the sulfur concentration is difficult to reconcile with the proposed recent increase in acidity. The contention is then made that high particulate loadings from the combustion of coal in the past could have caused neutralization of the acid sulfate. Likens and Bormann further conclude that the installation of particle-removing devices in tall smokestacks eliminates these alkaline substances, consequently permitting appreciable quantities of SO/sub 2/ to be converted to acid. This argument cannot be correct. Modern electrostatic precipitators remove approx. 99% of the ash. This increase in particulate removal is hardly enough to be significant for the enormous difference in neutralization proposed by the authors. 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subjects 01 COAL, LIGNITE, AND PEAT
010900 - Coal, Lignite, & Peat- Environmental Aspects
500200 - Environment, Atmospheric- Chemicals Monitoring & Transport- (-1989)
ACID RAIN
Acidity
AIR POLLUTION
AIR POLLUTION CONTROL
ATMOSPHERIC PRECIPITATIONS
CARBONACEOUS MATERIALS
CHALCOGENIDES
Chemical precipitation
COAL
CONTROL
ELECTROSTATIC PRECIPITATORS
ENERGY SOURCES
ENVIRONMENTAL SCIENCES
Food
FOSSIL FUELS
Fuel combustion
FUELS
MANAGEMENT
MATERIALS
Mental stimulation
OXIDES
OXYGEN COMPOUNDS
Particle precipitation
PARTICLES
PARTICULATES
PH VALUE
POLLUTION
POLLUTION CONTROL
POLLUTION CONTROL EQUIPMENT
PRECIPITATION SCAVENGING
RAIN
SEPARATION PROCESSES
Smokestacks
STACK DISPOSAL
STACKS
SULFATES
SULFUR COMPOUNDS
SULFUR DIOXIDE
SULFUR OXIDES
WASTE DISPOSAL
WASTE MANAGEMENT
title Acidity in Rainwater: Has an Explanation Been Presented?
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