Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality Control

Sea level oscillations are the superposition of many contributions. In particular, tide is a sea level up-down water motion basically depending on three different phenomena: the Earth-Moon-Sun gravitational relationship, the water surface fluid reaction to atmospheric meteorological dynamic, and the...

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Main Authors: Osvaldo Faggioni, Maurizio Soldani, Davide Andrea Leoncini
Format: Article
Language:English
Published: Hindawi Limited 2013-01-01
Series:International Journal of Geophysics
Online Access:http://dx.doi.org/10.1155/2013/398956
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spelling doaj-f59aeb6c9e23431ea8cf7b8cc9efdaff2020-11-24T22:23:47ZengHindawi LimitedInternational Journal of Geophysics1687-885X1687-88682013-01-01201310.1155/2013/398956398956Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality ControlOsvaldo Faggioni0Maurizio Soldani1Davide Andrea Leoncini2OGS (Istituto Nazionale di Oceanografia e di Geofisica Sperimentale), ST-COPS, Via Carducci 120, 19126 La Spezia, ItalyOGS (Istituto Nazionale di Oceanografia e di Geofisica Sperimentale), ST-COPS, Via Carducci 120, 19126 La Spezia, ItalyOGS (Istituto Nazionale di Oceanografia e di Geofisica Sperimentale), ST-COPS, Via Carducci 120, 19126 La Spezia, ItalySea level oscillations are the superposition of many contributions. In particular, tide is a sea level up-down water motion basically depending on three different phenomena: the Earth-Moon-Sun gravitational relationship, the water surface fluid reaction to atmospheric meteorological dynamic, and the Newtonian vertical adjustment of the sea surface due to atmospheric pressure variations. The first tide component (astrotide) is periodic and well known in all points of the Earth surface; the second one is directly related to the meteorological phenomenon, and then it is foreseeable; the Newtonian component, on the contrary, is not readily predictable by a general hydrostatic law, because the J factor that represents the Newtonian transfer (from the atmospheric weight to the consequent sea level) is variable in each harbor area. The analysis of the gravity field permits to forecast the sea level variation due to meteorological tide events, and its metrological analysis highlights a compensation in the inverse hydrobarometric factor to be taken into account to correctly compensate atmospheric pressure variations in semibinding basins. This phenomenon has several consequences in Harbor Waterside management and in water quality control as shown by the reported case studies and introduces a new reference parameter: the so-called Water 1000.http://dx.doi.org/10.1155/2013/398956
collection DOAJ
language English
format Article
sources DOAJ
author Osvaldo Faggioni
Maurizio Soldani
Davide Andrea Leoncini
spellingShingle Osvaldo Faggioni
Maurizio Soldani
Davide Andrea Leoncini
Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality Control
International Journal of Geophysics
author_facet Osvaldo Faggioni
Maurizio Soldani
Davide Andrea Leoncini
author_sort Osvaldo Faggioni
title Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality Control
title_short Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality Control
title_full Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality Control
title_fullStr Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality Control
title_full_unstemmed Metrological Analysis of Geopotential Gravity Field for Harbor Waterside Management and Water Quality Control
title_sort metrological analysis of geopotential gravity field for harbor waterside management and water quality control
publisher Hindawi Limited
series International Journal of Geophysics
issn 1687-885X
1687-8868
publishDate 2013-01-01
description Sea level oscillations are the superposition of many contributions. In particular, tide is a sea level up-down water motion basically depending on three different phenomena: the Earth-Moon-Sun gravitational relationship, the water surface fluid reaction to atmospheric meteorological dynamic, and the Newtonian vertical adjustment of the sea surface due to atmospheric pressure variations. The first tide component (astrotide) is periodic and well known in all points of the Earth surface; the second one is directly related to the meteorological phenomenon, and then it is foreseeable; the Newtonian component, on the contrary, is not readily predictable by a general hydrostatic law, because the J factor that represents the Newtonian transfer (from the atmospheric weight to the consequent sea level) is variable in each harbor area. The analysis of the gravity field permits to forecast the sea level variation due to meteorological tide events, and its metrological analysis highlights a compensation in the inverse hydrobarometric factor to be taken into account to correctly compensate atmospheric pressure variations in semibinding basins. This phenomenon has several consequences in Harbor Waterside management and in water quality control as shown by the reported case studies and introduces a new reference parameter: the so-called Water 1000.
url http://dx.doi.org/10.1155/2013/398956
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