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#1
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I wrote back in April:
Newsgroups: sci.physics, sci.environment, sci.geo.meteorology From: a_plutonium Date: 23 Apr 2007 22:34:02 -0700 Local: Tues, Apr 24 2007 12:34 am Subject: #6 physics of Earth's First Air-Conditioner -- Thistle Seed ; monograph-book: +Solving Global Warming and Building Earth's First Planetary Air-Conditioner a_plutonium wrote: Monograph-Book: "Solving Global Warming and Building Earth's First Planetary Air-Conditioner", Archimedes Plutonium, Internet book published 2002-2007 (assimilated April 2007 in sci.physics,sci.environment,soc.history) Chapters: (1) Preface and Introduction (2) Crutzen's plan to solve Global Warming versus AP's plan (3) major human problems are MultiFactorial or MultiVariable, and not linear (4) Global Warming and Human Overpopulation are linked problems that have to be solved in tandem (5) Is Global Warming a extinctor-problem? Can we extinct ourselves by not solving Global Warming? (6) Issue of Biodiversity as it relates to Global Warming and Human Overpopulation (7) physics of Earth's first Air-Conditioner and future Air- Conditioners I should do myself a favor come July and stop starting new books and collate the ones I began since January of 2007. I am finding myself wanting to add onto those books where the numbering is inadequate as to where I left-off. I need more order in the organization of publishing books on the Internet and the numbering is crucial in organizing. Since I do not know the number for the last post on Global Warming I begin this post with #51. So I need to take a break from writing books and get the prior books better organized. Watching the news last night I see that parts of England are flooded from too much rain. And a typhoon hit Pakistan. But here in the Midwest USA where I live, looks like another 3 month drought without any rainfall. This drought without summer rain has been going on for about 5 years now. So what I wonder is whether Rainfall is a parameter of a Zero Sum System. I raised this question before and am raising it again. I wonder if the Rainfall throughout the world (where world is synonomous with planet Earth) plays a Zero Sum in that if one spot of Earth gets too much rain for that year, another spot gets too little for that year. So that the typhoon of Pakistan and the flooding in England is because of the drought in other places such as South Dakota. So that Rainfall throughout the weather system on Earth follows a Zero Sum pattern for the most part and if too much rain falls somewhere another place is drought. This question would suppose Earth has a specific capacity for rainfall and that the JetStream is the main component of where rain occurs. So that in Global Warming intensification that the JetStream becomes more narrow in its range, dumping more water where too much rainfall already occurs and depriving other spots. So my questions are whether Global Warming forces the JetStream to be narrow ranged and whether Rainfall is Zero Sum. Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies |
#2
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![]() So my questions are whether Global Warming forces the JetStream to be narrow ranged and whether Rainfall is Zero Sum. I think there is a cool answer and cool research. We have collected accurate weather rainfall since about 1890s in most regions of the Western USA and can send that data through a computer to collate whether the rainfall in the Western part of the USA, ie, west of the Mississippi is Zero-Sum. My guess is that it is nearly Zero-Sum with only a small gradual deviation. And because of Global Warming that the Jet-Stream becomes more narrow in range and hence the less spreading of rainfall over larger areas. The example this year is flooding rain in Texas and Oklahoma and the drought in northern states such as South Dakota. In fact, South Dakota for the past 5 summers has experienced little to no rainfall in the critical summer months. If this intensifies then South Dakota and surrounding states can be called "the land where it does not rain in the summertime". So if a computer were to collate the rainfall of much of the USA for the past 100 years, I am confident it will find that rain is nearly Zero Sum, which means that if one spot gets too much rain then another spot has to be that much dryer. So I suspect the records of the past 100 years can validate that claim of Zero Sum. As to the Jet-Stream affected by Global Warming, I need to research that question. But I am very much distraught and stressed by this summer's lack of rain. I thought I had provisions to meet a challenge like this, after having struggled last summer, but I find myself inadequately prepared. I have not lost any plants yet, but there is little to no growth on existing stock. Trees taller than myself have sufficient enough roots to reach the clay subsoils where there is enough moisture but bushes have a struggle, especially my currants and gooseberries. It would be nice if I had what I used to have in Utah back in the 1970s when we had a locked gate with the Moab Irrigation company and where I drop the gate and a half hour later the entire land is flooded in a foot of water. What has helped me immensely in these summer droughts is the roof asphalt shingles I use as mulch. The shingles keep the moisture from evaporating as fast. If not for that mulch, I would have lost alot of my new plants. Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies |
#3
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In article .com,
says... So my questions are whether Global Warming forces the JetStream to be narrow ranged and whether Rainfall is Zero Sum. I think there is a cool answer and cool research. We have collected accurate weather rainfall since about 1890s in most regions of the Western USA and can send that data through a computer to collate whether the rainfall in the Western part of the USA, ie, west of the Mississippi is Zero-Sum. My guess is that it is nearly Zero-Sum with only a small gradual deviation. And because of Global Warming that the Jet-Stream becomes more narrow in range and hence the less spreading of rainfall over larger areas. The example this year is flooding rain in Texas and Oklahoma and the drought in northern states such as South Dakota. In fact, South Dakota for the past 5 summers has experienced little to no rainfall in the critical summer months. If this intensifies then South Dakota and surrounding states can be called "the land where it does not rain in the summertime". So if a computer were to collate the rainfall of much of the USA for the past 100 years, I am confident it will find that rain is nearly Zero Sum, which means that if one spot gets too much rain then another spot has to be that much dryer. So I suspect the records of the past 100 years can validate that claim of Zero Sum. The long-term mean for the US is 29.13 inches with a standard deviation of 2.18 inches. It's not particularly zero-sum. The calculation you want done has been done and the annual US mean national precip is available at http://www.ncdc.noaa.gov/oa/climate/...h/cag3/na.html From there, in inches, the annual precip for the US has been: 1896 26.66 1896 28.68 1897 28.11 1898 28.70 1899 27.43 1900 29.88 1901 26.63 1902 29.46 1903 28.42 1904 26.84 1905 31.84 1906 31.73 1907 30.17 1908 29.17 1909 30.64 1910 24.37 1911 28.94 1912 29.75 1913 29.31 1914 28.27 1915 32.06 1916 28.90 1917 24.44 1918 27.95 1919 30.99 1920 30.39 1921 27.94 1922 29.11 1923 30.75 1924 25.95 1925 25.94 1926 30.12 1927 31.15 1928 28.67 1929 29.50 1930 25.09 1931 26.79 1932 29.60 1933 26.80 1934 25.05 1935 28.85 1936 26.59 1937 29.72 1938 28.85 1939 25.82 1940 29.63 1941 31.85 1942 30.58 1943 26.07 1944 30.08 1945 32.25 1946 30.42 1947 28.57 1948 29.65 1949 29.70 1950 29.99 1951 30.33 1952 25.63 1953 27.51 1954 25.23 1955 26.81 1956 24.57 1957 32.90 1958 29.25 1959 29.88 1960 27.95 1961 30.41 1962 27.80 1963 24.77 1964 29.23 1965 28.95 1966 26.67 1967 28.61 1968 29.52 1969 29.79 1970 28.54 1971 29.29 1972 30.77 1973 33.99 1974 29.72 1975 32.02 1976 25.62 1977 29.62 1978 29.17 1979 32.02 1980 27.38 1981 29.17 1982 32.99 1983 33.81 1984 30.48 1985 29.41 1986 30.61 1987 28.46 1988 25.25 1989 28.42 1990 31.40 1991 31.77 1992 30.67 1993 31.97 1994 30.04 1995 31.69 1996 32.59 1997 31.29 1998 32.97 1999 27.84 2000 27.73 2001 28.58 2002 28.66 2003 29.95 2004 32.88 2005 29.84 2006 29.39 -- Harold Brooks hebrooks87 hotmail.com |
#4
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![]() Harold Brooks wrote: In article .com, says... So my questions are whether Global Warming forces the JetStream to be narrow ranged and whether Rainfall is Zero Sum. I think there is a cool answer and cool research. We have collected accurate weather rainfall since about 1890s in most regions of the Western USA and can send that data through a computer to collate whether the rainfall in the Western part of the USA, ie, west of the Mississippi is Zero-Sum. My guess is that it is nearly Zero-Sum with only a small gradual deviation. And because of Global Warming that the Jet-Stream becomes more narrow in range and hence the less spreading of rainfall over larger areas. The example this year is flooding rain in Texas and Oklahoma and the drought in northern states such as South Dakota. In fact, South Dakota for the past 5 summers has experienced little to no rainfall in the critical summer months. If this intensifies then South Dakota and surrounding states can be called "the land where it does not rain in the summertime". So if a computer were to collate the rainfall of much of the USA for the past 100 years, I am confident it will find that rain is nearly Zero Sum, which means that if one spot gets too much rain then another spot has to be that much dryer. So I suspect the records of the past 100 years can validate that claim of Zero Sum. The long-term mean for the US is 29.13 inches with a standard deviation of 2.18 inches. It's not particularly zero-sum. The calculation you want done has been done and the annual US mean national precip is available at http://www.ncdc.noaa.gov/oa/climate/...h/cag3/na.html From there, in inches, the annual precip for the US has been: 1896 26.66 1896 28.68 1897 28.11 1898 28.70 1899 27.43 1900 29.88 1901 26.63 1902 29.46 1903 28.42 1904 26.84 1905 31.84 1906 31.73 1907 30.17 1908 29.17 1909 30.64 1910 24.37 1911 28.94 1912 29.75 1913 29.31 1914 28.27 1915 32.06 1916 28.90 1917 24.44 1918 27.95 1919 30.99 1920 30.39 1921 27.94 1922 29.11 1923 30.75 1924 25.95 1925 25.94 1926 30.12 1927 31.15 1928 28.67 1929 29.50 1930 25.09 1931 26.79 1932 29.60 1933 26.80 1934 25.05 1935 28.85 1936 26.59 1937 29.72 1938 28.85 1939 25.82 1940 29.63 1941 31.85 1942 30.58 1943 26.07 1944 30.08 1945 32.25 1946 30.42 1947 28.57 1948 29.65 1949 29.70 1950 29.99 1951 30.33 1952 25.63 1953 27.51 1954 25.23 1955 26.81 1956 24.57 1957 32.90 1958 29.25 1959 29.88 1960 27.95 1961 30.41 1962 27.80 1963 24.77 1964 29.23 1965 28.95 1966 26.67 1967 28.61 1968 29.52 1969 29.79 1970 28.54 1971 29.29 1972 30.77 1973 33.99 1974 29.72 1975 32.02 1976 25.62 1977 29.62 1978 29.17 1979 32.02 1980 27.38 1981 29.17 1982 32.99 1983 33.81 1984 30.48 1985 29.41 1986 30.61 1987 28.46 1988 25.25 1989 28.42 1990 31.40 1991 31.77 1992 30.67 1993 31.97 1994 30.04 1995 31.69 1996 32.59 1997 31.29 1998 32.97 1999 27.84 2000 27.73 2001 28.58 2002 28.66 2003 29.95 2004 32.88 2005 29.84 2006 29.39 Thanks for the valuable information. I would disagree with your evaluation that it is not zero-sum. I would say the above supports the claim that rainfall is very much a zero-sum parameter because in 1905 it was 31.84 and yet over a century later it was 29.39 in 2006. And keeping in mind that the measuring of the rainfall has steadily improved in those 100 years of tabulation. It reached 33 in the 1970s and 1980s but that may have been due to increased hurricane rainfall and the ability to measure hurricane rainfall. I am speculating that as the Global Warming increases, that the melted ice cap water will make a steady small increase in the yearly rainfall totals. But because Global Warming affects the Jet-Stream that the interior of continents become dryer. So the increase in rainfall occur along coasts and the interior becomes more desert climate. I need some physics analogy for why Global Warming decreases the range of the Jet-Stream. Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies |
#5
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At the end of the year when the rainfall for all of the USA is
tabulated, it will probably come out as a figure of 30" average over the USA. So the reason that California and upper MidWest are in a drought is because the rainfall slated to go to these drought stricken regions was dumped off in Texas, Oklahoma and Kansas. So rainfall is very clearly a Zero-Sum parameter. And we can go back in time to find where parts of the USA had severe droughts and find where other regions had way too much rain. So what role does Global Warming have in rainfall? I believe its greatest impact on rain is the Jet-Stream, whereas the Jet-Stream before Global Warming had a very much larger range and thus bringing rainfall over larger land area. But with Global Warming intensifying, causes the Jet-Stream to be more restricted in range, and where it stays mostly far up north in Canada. Thus the moisture from the Gulf waters is dumped in Texas and nearby and never really makes it to the drought stricken upper MidWest. I am working on a physics model that imitates this Jet Stream pattern. Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies |
#6
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http://www.ncdc.noaa.gov/oa/climate/...h/cag3/na.html
From there, in inches, the annual precip for the US has been: 1896 26.66 1896 28.68 1897 28.11 1898 28.70 1899 27.43 1900 29.88 1901 26.63 1902 29.46 1903 28.42 1904 26.84 1905 31.84 1906 31.73 1907 30.17 1908 29.17 1909 30.64 1910 24.37 1911 28.94 1912 29.75 1913 29.31 1914 28.27 1915 32.06 1916 28.90 1917 24.44 1918 27.95 1919 30.99 1920 30.39 1921 27.94 1922 29.11 1923 30.75 1924 25.95 1925 25.94 1926 30.12 1927 31.15 1928 28.67 1929 29.50 1930 25.09 1931 26.79 1932 29.60 1933 26.80 1934 25.05 1935 28.85 1936 26.59 1937 29.72 1938 28.85 1939 25.82 1940 29.63 1941 31.85 1942 30.58 1943 26.07 1944 30.08 1945 32.25 1946 30.42 1947 28.57 1948 29.65 1949 29.70 1950 29.99 1951 30.33 1952 25.63 1953 27.51 1954 25.23 1955 26.81 1956 24.57 1957 32.90 1958 29.25 1959 29.88 1960 27.95 1961 30.41 1962 27.80 1963 24.77 1964 29.23 1965 28.95 1966 26.67 1967 28.61 1968 29.52 1969 29.79 1970 28.54 1971 29.29 1972 30.77 1973 33.99 1974 29.72 1975 32.02 1976 25.62 1977 29.62 1978 29.17 1979 32.02 1980 27.38 1981 29.17 1982 32.99 1983 33.81 1984 30.48 1985 29.41 1986 30.61 1987 28.46 1988 25.25 1989 28.42 1990 31.40 1991 31.77 1992 30.67 1993 31.97 1994 30.04 1995 31.69 1996 32.59 1997 31.29 1998 32.97 1999 27.84 2000 27.73 2001 28.58 2002 28.66 2003 29.95 2004 32.88 2005 29.84 2006 29.39 They called it the Dirty Thirties of the dust bowl on the Plains, but actually from the above it was 1910 that had the least amount of rainfall. Perhaps the decade of the thirties was the worst decade. But then the measuring in early years may have been rather crude and not precise enough. The above list shows that Rainfall is a Zero-Sum parameter, unlike temperature which is steadily rising due to Global Warming and perhaps due to the Sun's solar flare cycles. It maybe that Rainfall is a Near-Zero-Sum parameter where there is a small gradual increase in Rain over landmass over time. Now one way to perhaps guage or assess Zero-Sum is to ask the question was there ever a geological time in which there were no deserts to speak of. Where all the landmass continents were green and lush with plants and that no dry desert existed? I know of no such time. If there was such a time would perhaps debunk the Zero-Sum claim. Keeping in mind that Rain could still be Zero-Sum even if there were no deserts in that all areas would receive more rain than that of a desert climate. But one of the reasons we have deserts is so that other regions can have more rainfall than they otherwise would receive. Now I would think that Rainfall should be slightly increasing and not a perfect Zero-Sum. Increasing due to the fact that temperatures are increasing and freeing up water locked in the polar regions. And due to the fact of more heat energy in the atmosphere as a means of delivery of more water to the continental landmasses. So as temperature increases due to Global Warming that hurricanes and typhoons increase in frequency and intensity dumping more water as rainfall. So the Zero-Sum is more likely to be a Small Increasing Sum. And the last decades of 1980s and 1990s shows us the increasing rainfall trend. Now I wonder if some plants can tell us easier, whether rainfall is slightly increasing. Are plants like ferns increasing worldwide? Are some weeds that need more water than other weeds increasing? Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies |
#7
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They called it the Dirty Thirties of the dust bowl on the Plains, but
actually from the above it was 1910 that had the least amount of rainfall. Perhaps the decade of the thirties was the worst decade. But then the measuring in early years may have been rather crude and not precise enough. The above list shows that Rainfall is a Zero-Sum parameter, unlike temperature which is steadily rising due to Global Warming and perhaps due to the Sun's solar flare cycles. It maybe that Rainfall is a Near-Zero-Sum parameter where there is a small gradual increase in Rain over landmass over time. Now one way to perhaps guage or assess Zero-Sum is to ask the question was there ever a geological time in which there were no deserts to speak of. Where all the landmass continents were green and lush with plants and that no dry desert existed? I know of no such time. If there was such a time would perhaps debunk the Zero-Sum claim. Keeping in mind that Rain could still be Zero-Sum even if there were no deserts in that all areas would receive more rain than that of a desert climate. But one of the reasons we have deserts is so that other regions can have more rainfall than they otherwise would receive. Now I would think that Rainfall should be slightly increasing and not a perfect Zero-Sum. Increasing due to the fact that temperatures are increasing and freeing up water locked in the polar regions. And due to the fact of more heat energy in the atmosphere as a means of delivery of more water to the continental landmasses. So as temperature increases due to Global Warming that hurricanes and typhoons increase in frequency and intensity dumping more water as rainfall. So the Zero-Sum is more likely to be a Small Increasing Sum. And the last decades of 1980s and 1990s shows us the increasing rainfall trend. Learn how to format paragraphs, moron. It's basic computer literacy. -- Posted via a free Usenet account from http://www.teranews.com |
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