Question

In: Statistics and Probability

Part I We’ll use the “Debt and Taxes” tab in the Lab 5 Excel Workbook The...

Part I

We’ll use the “Debt and Taxes” tab in the Lab 5 Excel Workbook

The Economic Data Runs from 1946 (1st year post WW2) to 2016

Note: This issue is tremendously more complicated than the two variables presented here. This is only a partial look at the issue and there is ample room for debate as causes of the issues at hand.

1) Examining the Relationships

              Create and copy in the following Charts

                             1) Line Chart with “Year”, “Top Bracket %”, and “Debt (Relative to 1946)”

                             2) Scatterplot with “Year” and “Top Bracket %,” choose “Show Trendline”

                             3) Scatterplot with “Year” and “National Debt (Trillions),” choose “Show Trendline”

              a) What trends do you see over time?

              b) Do “Top Bracket %” and “National Debt(Trillions)” appear associated?

              c) What might be a possible confounding factor?

2) Running Regressions

              a) Use “Data->Data Analysis->Regression” with “Top Bracket” as the y variable and

“Year” as the x- variable.

What is your model? Slope t-value? F-Value? R squared?

              b) Run a second regression with “National Debt(Trillions)” as the y variable and

                             “Year” as the x-variable.

What is your model? Slope t-value? F-Value? R squared?

             

c) Run a final regression with “National Debt(Trillions)” as the y variable and

                             “Top Bracket %” as the x-variable

What is your model? Slope t-value? F-Value? R squared?

              d) Based on the R squared from part c) how much of the debts change is due to taxes?

Part II

We will use the “Twins Data” tab in the workbook.

1) Single Variable

              a) Create a Scatterplot of “Wins” and “Runs” (You might need to rescale the axis for each)

              b) Run a Regression with “Wins” as y and “Runs” as x

c) What is your model? Slope t-value? F-Value? R squared?

2) Multivariable

              a) Traditional Stats

                             Run a regression with “Wins” as the y variable and both “Batting Average” and “ERA”

as the two x variables

What is your model? Slope t-values? F-Value? R squared?

              b) Moneyball Stats

                             Run a regression with “Wins” as the y variable and “OPS” and “WHIP” as the x variables

What is your model? Slope t-value? F-Value? R squared?

3) Of the 3 options which model do you feel works the best? Explain.

Year Top Bracket % Decimal for Top Bracket National Debt (Trillions) Debt (Relative to 1946)
1946 91 0.91 0.271 1.000
1947 91 0.91 0.257 0.948
1948 91 0.91 0.252 0.930
1949 91 0.91 0.253 0.934
1950 91 0.91 0.257 0.948
1951 91 0.91 0.255 0.941
1952 92 0.92 0.259 0.956
1953 92 0.92 0.266 0.982
1954 91 0.91 0.271 1.000
1955 91 0.91 0.274 1.011
1956 91 0.91 0.273 1.007
1957 91 0.91 0.271 1.000
1958 91 0.91 0.276 1.018
1959 91 0.91 0.285 1.052
1960 91 0.91 0.286 1.055
1961 91 0.91 0.289 1.066
1962 91 0.91 0.298 1.100
1963 91 0.91 0.306 1.129
1964 77 0.77 0.312 1.151
1965 70 0.7 0.317 1.170
1966 70 0.7 0.320 1.181
1967 70 0.7 0.326 1.203
1968 70 0.7 0.348 1.284
1969 70 0.7 0.354 1.306
1970 70 0.7 0.371 1.369
1971 70 0.7 0.398 1.469
1972 70 0.7 0.427 1.576
1973 70 0.7 0.458 1.690
1974 70 0.7 0.475 1.753
1975 70 0.7 0.533 1.967
1976 70 0.7 0.620 2.288
1977 70 0.7 0.699 2.579
1978 70 0.7 0.772 2.849
1979 70 0.7 0.827 3.052
1980 70 0.7 0.908 3.351
1981 70 0.7 0.998 3.683
1982 50 0.5 1.142 4.214
1983 50 0.5 1.377 5.081
1984 50 0.5 1.572 5.801
1985 50 0.5 1.823 6.727
1986 50 0.5 2.125 7.841
1987 38.5 0.385 2.340 8.635
1988 28 0.28 2.602 9.601
1989 28 0.28 2.857 10.542
1990 28 0.28 3.233 11.930
1991 31 0.31 3.665 13.524
1992 39.6 0.396 4.065 15.000
1993 39.6 0.396 4.411 16.277
1994 39.6 0.396 4.693 17.317
1995 39.6 0.396 4.974 18.354
1996 39.6 0.396 5.225 19.280
1997 39.6 0.396 5.413 19.974
1998 39.6 0.396 5.526 20.391
1999 39.6 0.396 5.656 20.871
2000 39.6 0.396 5.674 20.937
2001 39.1 0.391 5.807 21.428
2002 38.6 0.386 6.228 22.982
2003 35 0.35 6.783 25.030
2004 35 0.35 7.379 27.229
2005 35 0.35 7.933 29.273
2006 35 0.35 8.507 31.391
2007 35 0.35 9.008 33.240
2008 35 0.35 10.025 36.993
2009 35 0.35 11.910 43.948
2010 35 0.35 13.562 50.044
2011 35 0.35 14.790 54.576
2012 35 0.35 16.066 59.284
2013 39.6 0.396 16.738 61.764
2014 39.6 0.396 17.824 65.771
2015 39.6 0.396 18.151 66.978
2016 39.6 0.396 19.573 72.225

Solutions

Expert Solution

Part.1

Part-1

1 Examine the relationship

2. Scatterplot with Year and Top Bracket % with trendline .

3. Scatter plot with Year and National Debt

Q.2

a. When Top bracket is y variable and year is x variable the Output is

SUMMARY OUTPUT

Regression Statistics

Multiple R

0.929531

R Square

0.864028

Adjusted R Square

0.862057

Standard Error

8.520685

Observations

71

ANOVA

df

SS

MS

F

Significance F

Regression

1

31832.87

31832.87

438.4568

1.31E-31

Residual

69

5009.543

72.60207

Total

70

36842.41

Coefficients

Standard Error

t Stat

P-value

Lower 95%

Upper 95%

Lower 95.0%

Upper 95.0%

Intercept

2106.669

97.75262

21.55102

2.32E-32

1911.658

2301.68

1911.658

2301.68

Year

-1.0332

0.049342

-20.9394

1.31E-31

-1.13163

-0.93476

-1.13163

-0.93476

The Model is given by

Y(Top Bracket %)=2106.669-1.0332*X(Year)

The t value for intercept is 21.55102 and for slope coefficient or Year t value is -209394

F value is given by 438.4568

R Sq value is 0.864028

B. When National Debt (Trillions) is Y variable and year is x variable then output is:

SUMMARY OUTPUT

Regression Statistics

Multiple R

0.83730135

R Square

0.70107356

Adjusted R Square

0.69674129

Standard Error

2.83266867

Observations

71

ANOVA

df

SS

MS

F

Significance F

Regression

1

1298.494

1298.494

161.826

9.17E-20

Residual

69

553.6568

8.024012

Total

70

1852.151

Coefficients

Standard Error

t Stat

P-value

Lower 95%

Upper 95%

Lower 95.0%

Upper 95.0%

Intercept

-409.535751

32.49748

-12.6021

1.45E-19

-474.366

-344.705

-474.366

-344.705

Year

0.20867294

0.016404

12.72109

9.17E-20

0.175948

0.241397

0.175948

0.241397

The Model is given by

Y(National Debt)=409.53575+0.286729*X(Year)

The t value for intercept is 12.6021 and for slope coefficient or Year t value is 12.7211

F value is given by 161.826

R Sq value is 0.701074

C. When National Debt (Trillions) is y variable and Top Bracket % is xvarible then output is,

SUMMARY OUTPUT

Regression Statistics

Multiple R

0.6716638

R Square

0.45113225

Adjusted R Square

0.44317765

Standard Error

3.83837557

Observations

71

ANOVA

df

SS

MS

F

Significance F

Regression

1

835.5649

835.5649

56.71334

1.44E-10

Residual

69

1016.586

14.73313

Total

70

1852.151

Coefficients

Standard Error

t Stat

P-value

Lower 95%

Upper 95%

Lower 95.0%

Upper 95.0%

Intercept

12.8663055

1.281564

10.03953

3.96E-15

10.30965

15.42296

10.30965

15.42296

Top Bracket %

-0.15059692

0.019997

-7.53083

1.44E-10

-0.19049

-0.1107

-0.19049

-0.1107

The Model is given by

Y(National Debt)=12.866+0.1506*X(Top Bracket %)

The t value for intercept is 10.04 and for slope coefficient or top Bracket t value is 7.531

F value is given by 56.71334

R Sq value is 0.4511

D. Based on taxes 45% Debt is change .


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