Long-term spatial and temporal trends in frost indices in Kansas, USA

被引:1
|
作者
Aavudai Anandhi
Sriram Perumal
Prasanna H. Gowda
Mary Knapp
Stacy Hutchinson
John Harrington
Leigh Murray
Mary B. Kirkham
Charles W. Rice
机构
[1] Kansas State University,Department of Agronomy
[2] USDA-ARS Conservation and Production Research Laboratory,Department of Biological and Agricultural Engineering
[3] Kansas State University,Department of Geography
[4] Kansas State University,Department of Statistics
[5] Kansas State University,undefined
来源
Climatic Change | 2013年 / 120卷
关键词
Grow Season Length; Annual Time Scale; Southeastern Station; Konza Prairie; Konza Prairie Biological Station;
D O I
暂无
中图分类号
学科分类号
摘要
Frost indices such as number of frost days (nFDs), number of frost-free days (nFFDs), last spring freeze (LSF), first fall freeze (FFF), and growing-season length (GSL) were calculated using daily minimum air temperature (Tmin) from 23 centennial weather stations across Kansas during four time periods (through 1919, 1920–1949, 1950–1979, and 1980–2009). A frost day is defined as a day with Tmin < 0 °C. The long- and short-term trends in frost indices were analyzed at monthly, seasonal, and annual timescales. Probability of occurrence of the indices was analyzed at 5 %, 25 %, 50 %, 75 %, and 95 %. Results indicated a general increase in Tmin from 1900 through 2009 causing a decrease in nFDs. LSF and FFF occurred earlier and later than normal in the year, respectively, thereby resulting in an increase in GSL. In general, northwest Kansas recorded the greatest nFD and lowest Tmin, whereas southeast Kansas had the lowest nFD and highest Tmin; however, the magnitude of the trends in these indices varied with location, time period, and time scales. Based on the long-term records in most stations, LSF occurred earlier by 0.1–1.9 days/decade, FFF occurred later by 0.2–0.9 day/decade, and GSL was longer by 0.1–2.5 day/decade. At the 50 % probability level, Independence in the south-eastern part of Kansas had the earliest LSF (6 April), latest FFF (29 October) and longest GSL (207 days). Oberlin (north-western Kansas) recorded the shortest GSL (156 days) and earliest FFF (7 October) had the latest LSF (2 May) at the 50 % probability level. A positive correlation was observed for combinations of indices (LSF and GSL) and elevation, whereas a negative correlation was found between FFF and elevation.
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页码:169 / 181
页数:12
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