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Year S&P 500 (includes dividends) 3-month T.Bill US T. Bond Baa Corporate Bond Real Estate Gold 1928 43.81% 3.08% 0.84% 3.22% 1.49% 0.10% 1929 -8.30%

Year S&P 500 (includes dividends) 3-month T.Bill US T. Bond Baa Corporate Bond Real Estate Gold
1928 43.81% 3.08% 0.84% 3.22% 1.49% 0.10%
1929 -8.30% 3.16% 4.20% 3.02% -2.06% -0.15%
1930 -25.12% 4.55% 4.54% 0.54% -4.30% 0.10%
1931 -43.84% 2.31% -2.56% -15.68% -8.15% -17.38%
1932 -8.64% 1.07% 8.79% 23.59% -10.47% 21.28%
1933 49.98% 0.96% 1.86% 12.97% -3.81% 27.26%
1934 -1.19% 0.28% 7.96% 18.82% 2.91% 31.75%
1935 46.74% 0.17% 4.47% 13.31% 9.77% 0.43%
1936 31.94% 0.17% 5.02% 11.38% 3.22% 0.09%
1937 -35.34% 0.28% 1.38% -4.42% 2.56% -0.23%
1938 29.28% 0.07% 4.21% 9.24% -0.87% 0.17%
1939 -1.10% 0.05% 4.41% 7.98% -1.30% -1.23%
1940 -10.67% 0.04% 5.40% 8.65% 3.31% -1.66%
1941 -12.77% 0.13% -2.02% 5.01% -8.38% 0.00%
1942 19.17% 0.34% 2.29% 5.18% 3.33% 0.00%
1943 25.06% 0.38% 2.49% 8.04% 11.45% 0.00%
1944 19.03% 0.38% 2.58% 6.57% 16.58% 0.00%
1945 35.82% 0.38% 3.80% 6.80% 11.78% 2.54%
1946 -8.43% 0.38% 3.13% 2.51% 24.10% 0.00%
1947 5.20% 0.60% 0.92% 0.26% 21.26% 0.00%
1948 5.70% 1.05% 1.95% 3.44% 2.06% 0.00%
1949 18.30% 1.12% 4.66% 5.38% 0.09% -8.70%
1950 30.81% 1.20% 0.43% 4.24% 3.64% 9.56%
1951 23.68% 1.52% -0.30% -0.19% 6.05% 0.00%
1952 18.15% 1.72% 2.27% 4.44% 4.41% -0.35%
1953 -1.21% 1.89% 4.14% 1.62% 11.52% 0.69%
1954 52.56% 0.94% 3.29% 6.16% 0.92% 0.57%
1955 32.60% 1.72% -1.34% 2.04% 0.00% -0.03%
1956 7.44% 2.62% -2.26% -2.35% 0.91% -0.11%
1957 -10.46% 3.22% 6.80% -0.72% 2.72% -0.11%
1958 43.72% 1.77% -2.10% 6.43% 0.66% 0.43%
1959 12.06% 3.39% -2.65% 1.57% 0.11% 0.00%
1960 0.34% 2.87% 11.64% 6.66% 0.77% 0.48%
1961 26.64% 2.35% 2.06% 5.10% 0.98% -0.06%
1962 -8.81% 2.77% 5.69% 6.50% 0.32% -0.06%
1963 22.61% 3.16% 1.68% 5.46% 2.14% -0.40%
1964 16.42% 3.55% 3.73% 5.16% 1.26% 0.03%
1965 12.40% 3.95% 0.72% 3.19% 1.66% 0.06%
1966 -9.97% 4.86% 2.91% -3.45% 1.22% 0.03%
1967 23.80% 4.29% -1.58% 0.90% 2.32% -0.51%
1968 10.81% 5.34% 3.27% 4.85% 4.13% 12.47%
1969 -8.24% 6.67% -5.01% -2.03% 6.99% 5.01%
1970 3.56% 6.39% 16.75% 5.65% 8.22% -9.45%
1971 14.22% 4.33% 9.79% 14.00% 4.24% 16.69%
1972 18.76% 4.06% 2.82% 11.41% 2.98% 48.78%
1973 -14.31% 7.04% 3.66% 4.32% 3.42% 72.96%
1974 -25.90% 7.85% 1.99% -4.38% 10.07% 66.15%
1975 37.00% 5.79% 3.61% 11.05% 6.77% -24.80%
1976 23.83% 4.98% 15.98% 19.75% 8.18% -4.10%
1977 -6.98% 5.26% 1.29% 9.95% 14.65% 22.64%
1978 6.51% 7.18% -0.78% 3.14% 15.72% 37.01%
1979 18.52% 10.05% 0.67% -2.01% 13.74% 126.55%
1980 31.74% 11.39% -2.99% -3.32% 7.40% 15.19%
1981 -4.70% 14.04% 8.20% 8.46% 5.10% -32.60%
1982 20.42% 10.60% 32.81% 29.05% 0.56% 15.62%
1983 22.34% 8.62% 3.20% 16.19% 4.75% -16.80%
1984 6.15% 9.54% 13.73% 15.62% 4.68% -19.38%
1985 31.24% 7.47% 25.71% 23.86% 7.47% 6.00%
1986 18.49% 5.97% 24.28% 21.49% 9.61% 18.96%
1987 5.81% 5.78% -4.96% 2.29% 7.88% 24.53%
1988 16.54% 6.67% 8.22% 15.12% 7.21% -15.26%
1989 31.48% 8.11% 17.69% 15.79% 4.38% -2.84%
1990 -3.06% 7.50% 6.24% 6.14% -0.69% -3.11%
1991 30.23% 5.38% 15.00% 17.85% -0.16% -8.56%
1992 7.49% 3.43% 9.36% 12.17% 0.82% -5.73%
1993 9.97% 3.00% 14.21% 16.43% 2.16% 17.68%
1994 1.33% 4.25% -8.04% -1.32% 2.51% -2.17%
1995 37.20% 5.49% 23.48% 20.16% 1.80% 0.98%
1996 22.68% 5.01% 1.43% 4.79% 2.42% -4.59%
1997 33.10% 5.06% 9.94% 11.83% 4.02% -21.41%
1998 28.34% 4.78% 14.92% 7.95% 6.45% -0.83%
1999 20.89% 4.64% -8.25% 0.84% 7.68% 0.85%
2000 -9.03% 5.82% 16.66% 9.33% 9.28% -5.44%
2001 -11.85% 3.40% 5.57% 7.82% 6.67% 0.75%
2002 -21.97% 1.61% 15.12% 12.18% 9.56% 25.57%
2003 28.36% 1.01% 0.38% 13.53% 9.82% 19.89%
2004 10.74% 1.37% 4.49% 9.89% 13.64% 4.65%
2005 4.83% 3.15% 2.87% 4.92% 13.51% 17.77%
2006 15.61% 4.73% 1.96% 7.05% 1.73% 23.20%
2007 5.48% 4.36% 10.21% 3.15% -5.40% 31.92%
2008 -36.55% 1.37% 20.10% -5.07% -12.00% 4.32%
2009 25.94% 0.15% -11.12% 23.33% -3.85% 25.04%
2010 14.82% 0.14% 8.46% 8.35% -4.12% 29.24%
2011 2.10% 0.05% 16.04% 12.58% -3.88% 12.02%
2012 15.89% 0.09% 2.97% 10.12% 6.44% 5.68%
2013 32.15% 0.06% -9.10% -1.06% 10.72% -27.61%
2014 13.52% 0.03% 10.75% 10.38% 4.51% 0.12%
2015 1.38% 0.05% 1.28% -0.70% 5.21% -12.11%
2016 11.77% 0.32% 0.69% 10.37% 5.31% 8.10%
2017 21.61% 0.93% 2.80% 9.72% 6.21% 12.66%
2018 -4.23% 1.94% -0.02% -2.76% 4.53% -0.93%
2019 31.21% 2.06% 9.64% 15.33% 3.69% 19.08%
2020 18.02% 0.35% 11.33% 10.41% 10.35% 24.17%
2021 28.47% 0.05% -4.42% 0.93% 18.91% -3.75%
2022 -18.01% 2.02% -17.83% -14.49% 7.30% 0.55%

To maintain a semblance of her prior lifestyle she needs to draw down 50K per year to complement social security and other pension payments. a) Based on actual data (use the random function to select different starting years, sampling 40 times), determine the average number of years she can continue to draw down 50K before she runs out of money.

b) Second, since your client understands distribution (she took this course) and comes from a family of septagenarians, she wants to know what is the maximum she can draw down, with 95% confidence, if she expects to live to 78. She is 65 now.

c) finally, any other advice you would like to offer

image text in transcribed FAQ question: wont the answer be different since it will change when i open it answer: i expect that using the random function even a couple of dozen times (since there is only 90 odd years of history) the average will be relatively stable. again i care about the analysis and model and any out of the box thinking you can bring to the issue please dont hesitate if you have any other questions question: how can we set the formuala to get a non-negative number? answer: the random function is used to randomize the retirement year back in history. so a random function may result in your retiring in 1939 or 1972 or 1956 etc.. we need to do a simulation. what happens with your savings if you had invested in the market and the market returned whatever it actually did that year (data provided) figure out how frequently she might be broke before she dies? also see how much the frequency of going broke drops, if the cash spent is reduced hope this helps. this is a very realistic and non-academic assignment. The question is how does one count the number of years till the money goes negative. Answer: please keep in mind that the money invested on the first year of retirement earns a return based on the return of that year in the market. so unless one is unlucky in retiring when thie market is about to crash, the one should be able to make do for many years. a simple example is that if the market returned 10% the year the person retired, then the market paid the retiree $40K on a 400K investment. so even if the drawdown is $50K, it should go a longish while. the purpose of the exercise is to make it vividly clear how much of financial security is random Question: I am wondering for the answer, do we just pick any year to work out an answer or does the answer need to account for all possibilities (starting year ranging from 1928--1998)? Answer: One has to account for more than one year. One can do it for all years (since the sample is not too big) OR use the random function for a few dozen years and take the average of that.. Again, please don't be scared about not having the 'right' answer. In life there is rarely such a thing. I look forward to your best thinking and work, maybe incorporating any tools and material we covered. FAQ question: wont the answer be different since it will change when i open it answer: i expect that using the random function even a couple of dozen times (since there is only 90 odd years of history) the average will be relatively stable. again i care about the analysis and model and any out of the box thinking you can bring to the issue please dont hesitate if you have any other questions question: how can we set the formuala to get a non-negative number? answer: the random function is used to randomize the retirement year back in history. so a random function may result in your retiring in 1939 or 1972 or 1956 etc.. we need to do a simulation. what happens with your savings if you had invested in the market and the market returned whatever it actually did that year (data provided) figure out how frequently she might be broke before she dies? also see how much the frequency of going broke drops, if the cash spent is reduced hope this helps. this is a very realistic and non-academic assignment. The question is how does one count the number of years till the money goes negative. Answer: please keep in mind that the money invested on the first year of retirement earns a return based on the return of that year in the market. so unless one is unlucky in retiring when thie market is about to crash, the one should be able to make do for many years. a simple example is that if the market returned 10% the year the person retired, then the market paid the retiree $40K on a 400K investment. so even if the drawdown is $50K, it should go a longish while. the purpose of the exercise is to make it vividly clear how much of financial security is random Question: I am wondering for the answer, do we just pick any year to work out an answer or does the answer need to account for all possibilities (starting year ranging from 1928--1998)? Answer: One has to account for more than one year. One can do it for all years (since the sample is not too big) OR use the random function for a few dozen years and take the average of that.. Again, please don't be scared about not having the 'right' answer. In life there is rarely such a thing. I look forward to your best thinking and work, maybe incorporating any tools and material we covered

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