The variable smokes is a binary variable equal to one if a person smokes, and zero otherwise. Using the data in SMOKE, we estimate a linear probability model for smokes: smokes = .656 – .069 log(cigpric) + .012 log(income) – .029 educ (.855) (.204) (.026) (.006) [.856] [.207] [.026] + .020 age – .00026 age? – .101 restaurn – .026 white [.006] (.006) (.00006) (.039) (.052) [.005] [.00006] [.038] [.050] n = 807, R² = .062. The variable white equals one if the respondent is white, and zero otherwise; the other independent vari- ables are defined in Example 8.7. Both the usual and heteroskedasticity-robust standard errors are reported. (i) Are there any important differences between the two sets of standard errors? (ii) Holding other factors fixed, if education increases by four years, what happens to the estimated probability of smoking? (iii) At what point does another year of age reduce the probability of smoking? (iv) Interpret the coefficient on the binary variable restaurn (a dummy variable equal to one if the person lives in a state with restaurant smoking restrictions). (v) Person number 206 in the data set has the following characteristics: cigpric = 67.44, income = 6,500, educ = 16, age = 77, restaurn = 0, white = 0, and smokes = 0. Compute the predicted probability of smoking for this person and comment on the result.
The variable smokes is a binary variable equal to one if a person smokes, and zero otherwise. Using the data in SMOKE, we estimate a linear probability model for smokes: smokes = .656 – .069 log(cigpric) + .012 log(income) – .029 educ (.855) (.204) (.026) (.006) [.856] [.207] [.026] + .020 age – .00026 age? – .101 restaurn – .026 white [.006] (.006) (.00006) (.039) (.052) [.005] [.00006] [.038] [.050] n = 807, R² = .062. The variable white equals one if the respondent is white, and zero otherwise; the other independent vari- ables are defined in Example 8.7. Both the usual and heteroskedasticity-robust standard errors are reported. (i) Are there any important differences between the two sets of standard errors? (ii) Holding other factors fixed, if education increases by four years, what happens to the estimated probability of smoking? (iii) At what point does another year of age reduce the probability of smoking? (iv) Interpret the coefficient on the binary variable restaurn (a dummy variable equal to one if the person lives in a state with restaurant smoking restrictions). (v) Person number 206 in the data set has the following characteristics: cigpric = 67.44, income = 6,500, educ = 16, age = 77, restaurn = 0, white = 0, and smokes = 0. Compute the predicted probability of smoking for this person and comment on the result.
Algebra & Trigonometry with Analytic Geometry
13th Edition
ISBN:9781133382119
Author:Swokowski
Publisher:Swokowski
Chapter10: Sequences, Series, And Probability
Section10.8: Probability
Problem 32E
Related questions
Question
![The variable smokes is a binary variable equal to one if a person smokes, and zero otherwise. Using the
data in SMOKE, we estimate a linear probability model for smokes:
smokes = .656 – .069 log(cigpric) + .012 log(income) – .029 educ
(.855) (.204)
(.026)
(.006)
[.856] [.207]
[.026]
+ .020 age – .00026 age? – .101 restaurn – .026 white
[.006]
(.006)
(.00006)
(.039)
(.052)
[.005]
[.00006]
[.038]
[.050]
n = 807, R² = .062.
The variable white equals one if the respondent is white, and zero otherwise; the other independent vari-
ables are defined in Example 8.7. Both the usual and heteroskedasticity-robust standard errors are reported.
(i) Are there any important differences between the two sets of standard errors?
(ii) Holding other factors fixed, if education increases by four years, what happens to the estimated
probability of smoking?
(iii) At what point does another year of age reduce the probability of smoking?
(iv) Interpret the coefficient on the binary variable restaurn (a dummy variable equal to one if the
person lives in a state with restaurant smoking restrictions).
(v) Person number 206 in the data set has the following characteristics: cigpric = 67.44,
income = 6,500, educ = 16, age = 77, restaurn = 0, white = 0, and smokes = 0. Compute
the predicted probability of smoking for this person and comment on the result.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fe2010044-b18e-417d-b3ac-754f0820986b%2F70b85617-46d6-4029-b340-c3362cd7663a%2Fo3s3jek.png&w=3840&q=75)
Transcribed Image Text:The variable smokes is a binary variable equal to one if a person smokes, and zero otherwise. Using the
data in SMOKE, we estimate a linear probability model for smokes:
smokes = .656 – .069 log(cigpric) + .012 log(income) – .029 educ
(.855) (.204)
(.026)
(.006)
[.856] [.207]
[.026]
+ .020 age – .00026 age? – .101 restaurn – .026 white
[.006]
(.006)
(.00006)
(.039)
(.052)
[.005]
[.00006]
[.038]
[.050]
n = 807, R² = .062.
The variable white equals one if the respondent is white, and zero otherwise; the other independent vari-
ables are defined in Example 8.7. Both the usual and heteroskedasticity-robust standard errors are reported.
(i) Are there any important differences between the two sets of standard errors?
(ii) Holding other factors fixed, if education increases by four years, what happens to the estimated
probability of smoking?
(iii) At what point does another year of age reduce the probability of smoking?
(iv) Interpret the coefficient on the binary variable restaurn (a dummy variable equal to one if the
person lives in a state with restaurant smoking restrictions).
(v) Person number 206 in the data set has the following characteristics: cigpric = 67.44,
income = 6,500, educ = 16, age = 77, restaurn = 0, white = 0, and smokes = 0. Compute
the predicted probability of smoking for this person and comment on the result.
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