Access the full text.
Sign up today, get DeepDyve free for 14 days.
M. Notaro, F. Alkolibi, E. Fadda, F. Bakhrjy (2013)
Trajectory analysis of Saudi Arabian dust stormsJournal of Geophysical Research: Atmospheres, 118
Ping Liu, Q. Zhang, Chidong Zhang, Yuejian Zhu, M. Khairoutdinov, Hyemi Kim, C. Schumacher, Minghua Zhang (2016)
A Revised Real-Time Multivariate MJO IndexMonthly Weather Review, 144
M. Nazemosadat, N. Samani, D. Barry, M. Niko (2006)
ENSO forcing on climate change in Iran: Precipitation analysisIranian Journal of Science and Technology Transaction B-engineering, 30
MC Wheeler, HH Hendon (2004)
An all-season real-time multivariate MJO index: development of an index for monitoring and prediction. Bureau of Meteorology Research Centre, Melbourne, AustraliaMon Wea Rev, 132
A. Hoell, C. Funk, M. Barlow (2014)
The regional forcing of Northern hemisphere drought during recent warm tropical west Pacific Ocean La Niña eventsClimate Dynamics, 42
(2009)
The topographical impact on effectiveness of flood protection measures, Ph.D
J. Paegle, L. Byerle, K. Mo (2000)
Intraseasonal Modulation of South American Summer PrecipitationMonthly Weather Review, 128
Po-Cheng Hung, Tzu-Hsien Yang, H. Liaw, Wei-Sheng Wu (2014)
The Yeast Nucleosome Atlas (YNA) database: an integrative gene mining platform for studying chromatin structure and its regulation in yeastBMC Genomics, 15
S. Masoodian, B. Mohammadi (2012)
THE ANALYSIS OF FRONTOGENESIS FREQUENCY AT TIME OF SUPER HEAVY RAINFALL IN IRAN, 27
Á. Adames, J. Wallace (2014)
Three-Dimensional Structure and Evolution of the MJO and Its Relation to the Mean FlowJournal of the Atmospheric Sciences, 71
Á. Adames, J. Wallace (2015)
Three-Dimensional Structure and Evolution of the Moisture Field in the MJOJournal of the Atmospheric Sciences, 72
A. Donald, H. Meinke, B. Power, A. Maia, M. Wheeler, N. White, R. Stone, J. Ribbe (2006)
Near‐global impact of the Madden‐Julian Oscillation on rainfallGeophysical Research Letters, 33
N. Bond, G. Vecchi (2003)
The Influence of the Madden–Julian Oscillation on Precipitation in Oregon and Washington*Weather and Forecasting, 18
R. Krishnamurti (1998)
Convection induced by selective absorption of radiation: A laboratory model of conditional instabilityDynamics of Atmospheres and Oceans, 27
F. Pourasghar, T. Tozuka, H. Ghaemi, Pascal Oettli, S. Jahanbakhsh, T. Yamagata (2015)
Influences of the MJO on intraseasonal rainfall variability over southern IranAtmospheric Science Letters, 16
M. Nazemosadat, H. Ghaedamini (2010)
On the relationships between the Madden-Julian oscillation and precipitation variability in Southern Iran and the Arabian Peninsula: atmospheric circulation analysis.Journal of Climate, 23
M. Nazemosadat, A. Ghasemi (2004)
Quantifying the ENSO-Related Shifts in the Intensity and Probability of Drought and Wet Periods in IranJournal of Climate, 17
B. Liebmann, D. Hartmann (1984)
An Observational Study of Tropical–Midlatitude Interaction on Intraseasonal Time Scales during WinterJournal of the Atmospheric Sciences, 41
Alijani Bohloul, K. Mahmood, Esmailnejad Morteza (2010)
A SYNOPTIC ANALYSIS OF JANUARY 6, 2008 HEAVY PRECIPITATION IN THE SOUTHEAST OF IRAN, 1
R Krishnamurti (1997)
Convection induced by selective absorption of radiation: a laboratory model of conditional instability. Dynam. AtmosOceans, 27
A. Hoell, C. Funk (2013)
The ENSO-Related West Pacific Sea Surface Temperature GradientJournal of Climate, 26
Charles Jones (2000)
Occurrence of Extreme Precipitation Events in California and Relationships with the Madden–Julian OscillationJournal of Climate, 13
Michael Ventrice, M. Wheeler, H. Hendon, C. Schreck, C. Thorncroft, G. Kiladis (2013)
A Modified Multivariate Madden-Julian Oscillation Index Using Velocity PotentialMonthly Weather Review, 141
M. Barlow, M. Wheeler, B. Lyon, H. Cullen (2005)
Modulation of Daily Precipitation over Southwest Asia by the Madden–Julian OscillationMonthly Weather Review, 133
R. Higgins, W. Shi (2001)
Intercomparison of the Principal Modes of Interannual and Intraseasonal Variability of the North American Monsoon SystemJournal of Climate, 14
G. Kiladis, J. Dias, K. Straub, M. Wheeler, S. Tulich, K. Kikuchi, K. Weickmann, Michael Ventrice (2014)
A Comparison of OLR and Circulation-Based Indices for Tracking the MJOMonthly Weather Review, 142
M. Nazemosadat, I. Cordery (2000)
On the relationships between ENSO and autumn rainfall in Iran.International Journal of Climatology, 20
M. Barlow, H. Cullen, B. Lyon (2002)
Drought in Central and Southwest Asia: La Niña, the Warm Pool, and Indian Ocean Precipitation.Journal of Climate, 15
B. Alijani (2008)
Effect of the Zagros Mountains on the spatial distribution of precipitationJournal of Mountain Science, 5
A. Hoell, M. Barlow, R. Saini (2012)
The Leading Pattern of Intraseasonal and Interannual Indian Ocean Precipitation Variability and Its Relationship with Asian Circulation during the Boreal Cold SeasonJournal of Climate, 25
L. Ferranti, T. Palmer, F. Molteni, E. Klinker (1990)
Tropical-Extratropical Interaction Associated with the 30–60 Day Oscillation and Its Impact on Medium and Extended Range PredictionJournal of the Atmospheric Sciences, 47
Chidong Zhang (2005)
Madden‐Julian OscillationReviews of Geophysics, 43
N. S.M.J. (2001)
WINTER RAINFALL IN IRAN: ENSO AND ALOFT WIND INTERACTIONS, 25
M. Wheeler, H. Hendon (2004)
An All-Season Real-Time Multivariate MJO Index: Development of an Index for Monitoring and PredictionMonthly Weather Review, 132
B Alijani (2008)
Effect of the Zagros Mountains on the spatial distribution of precipitationJ Mt Sci, 5
A. Hoell, S. Shukla, M. Barlow, F. Cannon, C. Kelley, C. Funk (2015)
The Forcing of Monthly Precipitation Variability over Southwest Asia during the Boreal Cold SeasonJournal of Climate, 28
B. Zaitchik (2017)
Madden-Julian Oscillation impacts on tropical African precipitationAtmospheric Research, 184
SMJ Nazemosadat, K Shahgholian (2014)
Formation of heavy precipitations in the southwestern part of Iran and its association with the Madden-Julian OscillationJ Water Soil, 28
P. Groisman, R. Knight, D. Easterling, T. Karl, G. Hegerl, V. Razuvaev (2005)
Trends in Intense Precipitation in the Climate RecordJournal of Climate, 18
A. Hoell, C. Funk, M. Barlow (2014)
La Niña diversity and Northwest Indian Ocean Rim teleconnectionsClimate Dynamics, 43
B. Alijani, J. O’Brien, B. Yarnal (2008)
Spatial analysis of precipitation intensity and concentration in IranTheoretical and Applied Climatology, 94
K. Mo (2000)
The Association between Intraseasonal Oscillations and Tropical Storms in the Atlantic BasinMonthly Weather Review, 128
A. Hoell, M. Barlow, R. Saini (2013)
Intraseasonal and Seasonal-to-Interannual Indian Ocean Convection and Hemispheric TeleconnectionsJournal of Climate, 26
K. Lau, P. Chan (1985)
Aspects of the 40 50 Day Oscillation during the Northern Summer as Inferred from Outgoing Longwave RadiationMonthly Weather Review, 114
S. Masoudian, F. Shendi (2015)
THE RELATIONSHIP BETWEEN SYNOPTIC SYSTEMS INFLUENCING HEAVY RAINFALL IN THE NORTHERN LOW RAINFALL REGION, 18
Ping Liu (2014)
MJO structure associated with the higher-order CEOF modesClimate Dynamics, 43
L. Carvalho, Charles Jones, B. Liebmann (2004)
The South Atlantic Convergence Zone: Intensity, Form, Persistence, and Relationships with Intraseasonal to Interannual Activity and Extreme RainfallJournal of Climate, 17
Some important characteristics of the November–April heavy precipitation in southwestern parts of Iran and their linkages to the Madden–Julian Oscillation (MJO) were assessed for the period of 1975–2011. Daily precipitation data in nine meteorological stations spread in various parts of the study area and the corresponding MJO indices were analyzed. For each station, precipitation data were sorted in descending order and those values that fell within 5% of the highest records were categorized as the heavy precipitation. Besides this, the 10% threshold was also analyzed as an axillary assessment. The considered heavy precipitation data (5% threshold) accounted from about 26–35% of total annual precipitation. About half of the heavy precipitation occurred during December–January period and the other half distributed within the months of March, February, November and April by about 17, 14, 13and 6%, respectively. The highest frequency of heavy precipitation was related to the MJO phase 8. After this, the more frequent precipitation events were respectively associated to the phases 2, 7, 1, 6, 5 and 4 of the MJO. For the phases 1, 2, 7 and 8 frequency of the heavy precipitation statistically increased when the MJO amplitude was greater than unity. In contrast, for phases 4 and 5, heavy precipitation was generally linked to the spells that the amplitude size was lower than unity. Formation of a strong north–south oriented cold front mainly in Saudi Arabia and west-east oriented warm fronts in the southwest of Iran were realized as the key elements for initiating heavy precipitation over the study area. Although development of the Mediterranean-based cyclonic circulation is essential for the formation of these fronts, moisture transport mostly originates from northern parts of the Arabian Sea, southern parts of the Red Sea and the Persian Gulf.
Climate Dynamics – Springer Journals
Published: Jan 24, 2017
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.