context("Chapter 2") test_that("Chapter 2 functions basically work", { expect_error(Wald_CI_1x2(100)) expect_output( object = print(Wald_CI_1x2(1, 2)), regexp = "estimate = 0.5000 \\(95% CI 0.0000 to 1.0000\\)" ) expect_error(AgrestiCoull_CI_1x2(19)) expect_output( object = print(AgrestiCoull_CI_1x2(19, 20, .15)), regexp = "estimate = 0.8750 \\(85% CI 0.7778 to 0.9722\\)" ) expect_error(Arcsine_CI_1x2(500)) expect_output( object = print(Arcsine_CI_1x2(100, 5e3, .1)), regexp = "estimate = 0.0200 \\(90% CI 0.0169 to 0.0235\\)" ) expect_error(Blaker_exact_CI_1x2(1)) expect_output( object = print(Blaker_exact_CI_1x2(1, 100)), regexp = "estimate = 0.0100 \\(95% CI 0.0005 to 0.0513\\)" ) expect_error(Blaker_exact_test_1x2(1)) expect_output( object = print(Blaker_exact_test_1x2(1, 10, .5)), regexp = "P = 0.02148" ) expect_error(Blaker_midP_CI_1x2(100)) expect_output( object = print(Blaker_midP_CI_1x2(100, 500, .5)), regexp = "estimate = 0.2000 \\(50% CI 0.1881 to 0.2121\\)" ) expect_error(Blaker_midP_test_1x2(100)) expect_output( object = print(Blaker_midP_test_1x2( ligarden_2010["X"], ligarden_2010["n"], pi0 = 0.5 )), regexp = "P = 0.00845" ) expect_error(ClopperPearson_exact_CI_1x2(100)) expect_output( object = print(ClopperPearson_exact_CI_1x2( ligarden_2010["X"], ligarden_2010["n"] )), regexp = "estimate = 0.8125 \\(95% CI 0.5435 to 0.9595\\)" ) expect_error(ClopperPearson_midP_CI_1x2(100)) expect_output( object = print(ClopperPearson_midP_CI_1x2(ligarden_2010["X"], ligarden_2010["n"])), regexp = "estimate = 0.8125 \\(95% CI 0.5699 to 0.9500\\)" ) expect_error(Exact_binomial_test_1x2(100)) expect_output( object = print( Exact_binomial_test_1x2( ligarden_2010["X"], ligarden_2010["n"], pi0 = 0.5 ) ), regexp = "P = 0.02127" ) expect_error(Jeffreys_CI_1x2(100)) expect_output( object = print(Jeffreys_CI_1x2(ligarden_2010["X"], ligarden_2010["n"])), regexp = "estimate = 0.8125 \\(95% CI 0.5792 to 0.9442\\)" ) expect_error(LR_CI_1x2(100)) expect_output( object = print(LR_CI_1x2(ligarden_2010["X"], ligarden_2010["n"])), regexp = "estimate = 0.8125 \\(95% CI 0.5828 to 0.9497\\)" ) expect_error(LR_test_1x2(100)) expect_output( object = print(LR_test_1x2(ligarden_2010["X"], ligarden_2010["n"], pi0 = .5)), regexp = "P = 0.00944, T = 6.738 \\(df = 1\\)" ) expect_error(MidP_binomial_test_1x2(100)) expect_output( object = print(MidP_binomial_test_1x2( ligarden_2010["X"], ligarden_2010["n"], pi0 = .5 )), regexp = "P = 0.01273" ) expect_error(Score_test_1x2(100)) expect_output( object = print(Score_test_1x2(ligarden_2010["X"], ligarden_2010["n"], pi0 = .5)), regexp = "P = 0.01242, Z = 2.500" ) expect_error(Score_test_CC_1x2(100)) expect_output( object = print( Score_test_CC_1x2( ligarden_2010["X"], ligarden_2010["n"], pi0 = .5 ) ), regexp = "P = 0.02445, Z = 2.250" ) expect_error(Wald_CI_CC_1x2(100)) expect_output( object = print(Wald_CI_CC_1x2(ligarden_2010["X"], ligarden_2010["n"], alpha = .1)), regexp = "estimate = 0.8125 \\(90% CI 0.6207 to 1.0000\\)" ) expect_error(Wilson_score_CI_1x2(100)) expect_output( object = print(Wilson_score_CI_1x2(ligarden_2010["X"], ligarden_2010["n"])), regexp = "estimate = 0.8125 \\(95% CI 0.5699 to 0.9341\\)" ) expect_error(Wilson_score_CI_CC_1x2(100)) expect_output( object = print(Wilson_score_CI_CC_1x2(ligarden_2010["X"], ligarden_2010["n"])), regexp = "estimate = 0.8125 \\(95% CI 0.5369 to 0.9503\\)" ) expect_error(the_1x2_table_CIs(100)) expect_output( object = print(the_1x2_table_CIs(ligarden_2010["X"], ligarden_2010["n"])), regexp = "Estimate of pi: 13 / 16 = 0.812" ) expect_error(Wald_test_1x2(100)) expect_output( object = print(Wald_test_1x2(ligarden_2010["X"], ligarden_2010["n"], pi0 = 0.1)), regexp = "P = 0.00000, Z = 7.302" ) expect_error(Wald_test_CC_1x2(100)) expect_output( object = print( Wald_test_CC_1x2( ligarden_2010["X"], ligarden_2010["n"], pi0 = 0.1 ) ), regexp = "P = 0.00000, Z = 6.982" ) expect_error(the_1x2_table_tests(100)) expect_output( object = the_1x2_table_tests( ligarden_2010["X"], ligarden_2010["n"], pi0 = 0.5 ), regexp = "H_0: pi = 0.500 vs H_A: pi ~= 0.500" ) })